CN221146071U

CN221146071U - Telescopic support leg and multi-leg support

Info

Publication number: CN221146071U
Application number: CN202322304329.4U
Authority: CN
Inventors: 陈伟豪
Original assignee: Shenzhen Luxury United Technology Co ltd
Current assignee: Shenzhen Luxury United Technology Co ltd
Priority date: 2022-08-24
Filing date: 2023-08-24
Publication date: 2024-06-14
Anticipated expiration: 2033-08-24

Abstract

The utility model provides a telescopic support leg and a multi-leg support, which belong to the technical field of supporting devices, wherein the telescopic support leg is used as one of the support legs of the multi-leg support, the telescopic support leg comprises a first supporting piece and a second supporting piece, the first supporting piece is provided with at least one first sliding groove and at least one first mounting opening, the first mounting opening is communicated with a corresponding first sliding groove, the second supporting piece comprises at least one support rod and a foot pad, the first end of the support rod can be inserted into the corresponding first sliding groove through the corresponding first mounting opening so as to enable the support rod to be slidably mounted in the first sliding groove, the support rod can be slidably moved relative to the first sliding groove so as to change the length of the telescopic support leg, the first end of the support rod can extend out of the first sliding groove so as to enable the support rod to be connected with the foot pad in a screwed mode, and the first end of the support rod is gradually far away from the first supporting piece in the extending process of the telescopic support leg. The support rod is connected with the foot pad in a screwed mode, and therefore the support rod is convenient to install and detach.

Description

Telescopic support leg and multi-leg support

Technical Field

The utility model relates to the technical field of supporting devices, in particular to a telescopic support leg and a multi-leg support.

Background

The supporting device is used for supporting the fan head, the lamp, the shooting terminal, the mobile phone, the flat plate and other power utilization main bodies, and can be a flat plate type bracket, a multi-leg bracket and the like.

The multi-foot support is generally provided with at least three feet, and the at least three feet are supported on a supporting surface (ground, desktop and the like) to support the power utilization main body, so that the length of the feet of the existing multi-foot support is longer, and the occupied volume of the feet is larger when the multi-foot support is not used; for example, chinese patent documents with application numbers CN03274657.1 and CN2690716Y disclose a tripod, whose legs occupy a larger volume when not in use, i.e. the legs of the existing multi-leg stand have the disadvantage of occupying a larger volume when not in use.

Or the stand bar of the existing multi-foot support comprises a supporting piece and a foot pad arranged on the supporting piece, the foot pad is convenient for supporting the stand bar on a supporting surface, and the stand bar of the existing multi-foot support has the defect of difficult assembly of the foot pad.

Disclosure of utility model

In view of the drawbacks and deficiencies of the prior art, a first object of the present utility model is to provide a telescoping leg.

The embodiment of the utility model also provides a telescopic support leg, which is used as one leg of a multi-leg support, the telescopic support leg comprises a first support piece and a second support piece, the first support piece is provided with at least one first sliding groove and at least one first mounting opening, the at least one first mounting opening corresponds to the at least one first sliding groove respectively, the first mounting opening is communicated with the corresponding first sliding groove, the second support piece comprises at least one support rod and a foot pad, the at least one support rod corresponds to the at least one first sliding groove respectively, the first end of the support rod can be inserted into the corresponding first sliding groove through the corresponding first mounting opening so that the support rod is slidably mounted in the first sliding groove, the support rod can slide relative to the first sliding groove to change the length of the telescopic support leg, the first end of the support rod can extend out from the first sliding groove so that the support rod is connected with the foot pad in a screwing mode, and the first end of the support leg gradually extends away from the first support piece during the extension of the telescopic support leg; the support rod is provided with a first adjusting part, the first adjusting part is configured to be matched with an adjusting piece, the adjusting piece is provided with a second adjusting part matched with the first adjusting part, the adjusting piece can be matched with the first adjusting part through the first mounting opening and can rotate, and the support rod can be driven to rotate when the adjusting piece rotates so that the support rod can be fastened or unfastened with the foot pad; when the telescopic support legs are in a supporting state, the support legs are supported on a supporting surface, and the support rods can be positioned on the first supporting piece.

The embodiment of the utility model also provides a multi-foot support, which comprises a support rod and at least three supporting feet, wherein the support rod is used for supporting the power utilization main body, and the at least three supporting feet are used for supporting the support rod; the at least three support legs are all telescopic support legs according to any one of claims 1-11.

The telescopic support leg provided by the embodiment of the utility model has the following beneficial effects: when not using this flexible stabilizer blade, branch is slidable for first support piece in order to change the length of flexible stabilizer blade, can make the volume that occupies of flexible stabilizer blade reduce through the length of changing flexible stabilizer blade, and then makes the volume that occupies of the multi-legged support that has this flexible stabilizer blade reduce. The support rod is connected with the foot pad in a screwed mode, so that the support rod is convenient to install and detach, the support rod is provided with a first adjusting part, and the support rod is conveniently installed on the foot pad through a first installation opening by an adjusting piece.

Drawings

In order to more clearly illustrate the embodiments of the utility model or the technical solutions of the prior art, the drawings which are used in the description of the embodiments or the prior art will be briefly described, it being obvious that the drawings in the description below are only some embodiments of the utility model, and that other drawings can be obtained according to these drawings without inventive faculty for a person skilled in the art.

FIG. 1 is a schematic diagram of one implementation of a multi-foot bracket according to an embodiment of the present utility model;

FIG. 2 is a schematic view of the multi-legged support of FIG. 1 at another angle;

FIG. 3 is an enlarged view of the structure at A in the multi-foot shown in FIG. 2;

FIG. 4 is an enlarged view of the structure at B in the structure shown in FIG. 3;

FIG. 5 is an enlarged view of the structure at C in the structure shown in FIG. 3;

FIG. 6 is an enlarged view of the structure at E in the structure shown in FIG. 5;

FIG. 7 is an enlarged view of the structure at D of the structure shown in FIG. 3;

FIG. 8 is a front view of the multi-foot bracket of FIG. 1 in a certain orientation;

FIG. 9 is a top view of the multi-foot bracket shown in FIG. 8;

FIG. 10 is a cross-sectional view of the multi-foot bracket of FIG. 9 taken along line E-E;

FIG. 11 is an enlarged view of the structure at G of the structure shown in FIG. 10;

FIG. 12 is an enlarged view of the structure at H in the structure shown in FIG. 11;

FIG. 13 is an enlarged view of the structure at J of the structure shown in FIG. 12;

FIG. 14 is an enlarged view of the structure at I in the structure shown in FIG. 11;

FIG. 15 is a schematic view of another implementation of a strut to foot connection;

FIG. 16 is a schematic view of another implementation of a strut to foot connection;

FIG. 17 is a schematic view of another implementation of a strut to foot connection;

FIG. 18 is a schematic view of another implementation of a strut to foot connection;

FIG. 19 is a schematic view of another implementation of a strut to foot connection;

FIG. 20 is a schematic view of another implementation of a strut to foot connection;

FIG. 21 is a schematic view of another implementation of a strut to foot connection;

FIG. 22 is a cross-sectional view of the multi-foot bracket of FIG. 9 taken along line F-F;

FIG. 23 is an enlarged view of the structure at K in the structure shown in FIG. 22;

FIG. 24 is an enlarged view of the structure at L in the structure shown in FIG. 22;

FIG. 25 is a view of the telescoping leg shown in FIG. 24 with the foot pad engaged with the first support member when the telescoping leg is in the shortest position;

FIG. 26 is a state diagram of another implementation of foot bolsters mated with the first support when the telescoping legs are in a shortest state;

FIG. 27 is a state diagram of another implementation of foot bolsters mated with the first support when the telescoping legs are in the shortest state;

FIG. 28 is a state diagram of another implementation of foot bolsters mated with the first support when the telescoping legs are in the shortest state;

FIG. 29 is a state diagram of another implementation of foot bolsters mated with the first support when the telescoping legs are in the shortest state;

FIG. 30 is a state diagram of another implementation of foot bolsters mated with a first support when the telescoping legs are in a shortest state;

FIG. 31 is a state diagram of another implementation of foot bolsters mated with a first support when the telescoping legs are in a shortest state;

FIG. 32 is a schematic view of another implementation of the telescoping leg wherein the strut is positioned in the first support member in accordance with an embodiment of the present utility model;

FIG. 33 is a schematic view of the multi-legged support shown in FIG. 1 in a stowed condition;

FIG. 34 is a schematic view of the multi-foot bracket of FIG. 33 at another angle;

FIG. 35 is a schematic view of the engagement of the telescoping leg with the first link in the multi-leg stand of FIG. 34;

FIG. 36 is an enlarged view of the structure at M in the structure shown in FIG. 35;

FIG. 37 is an enlarged view of the structure at N in the structure shown in FIG. 35;

FIG. 38 is a schematic view of a photographing bracket implemented based on the multi-legged bracket shown in FIG. 1;

FIG. 39 is a schematic view of another telescoping leg configuration according to an embodiment of the present utility model;

FIG. 40 is a rear view of the telescoping leg shown in FIG. 39;

fig. 41 is a state diagram of the telescopic leg shown in fig. 39 extended to the longest state;

FIG. 42 is a rear view of the telescoping leg shown in FIG. 41;

FIG. 43 is an enlarged view of the structure at P in FIG. 42;

FIG. 44 is an enlarged view of the structure at Q in FIG. 43;

FIG. 45 is a schematic view (partially shown) of the structure of FIG. 43 at another angle;

FIG. 46 is an enlarged view of the structure at R in FIG. 45;

FIG. 47 is a schematic view of the structure of FIG. 45 after concealing the struts;

Fig. 48 is an enlarged view of the structure at S in the structure shown in fig. 47;

FIG. 49 is a schematic view of another multi-legged support according to an embodiment of the present utility model;

FIG. 50 is a schematic view of another angle of the multi-foot bracket of FIG. 49;

FIG. 51 is a front view of the multi-foot bracket of FIG. 49 in a direction;

FIG. 52 is a cross-sectional view of the multi-foot bracket of FIG. 51 taken along the line W-W;

FIG. 53 is an enlarged view of the structure at T in the structure shown in FIG. 52;

FIG. 54 is a front view of the multi-foot bracket of FIG. 49 in a direction;

FIG. 55 is a cross-sectional view of the multi-foot bracket shown in FIG. 54 taken along the line X-X;

FIG. 56 is an enlarged view of the structure at U in the structure shown in FIG. 55;

FIG. 57 is an enlarged view of the structure at V in the structure shown in FIG. 55;

FIG. 58 is a schematic perspective view of the telescoping leg of the multi-leg stand of FIG. 49;

FIG. 59 is an enlarged view of the structure at I in the structure shown in FIG. 58;

FIG. 60 is an enlarged view of structure II of the structure shown in FIG. 58;

FIG. 61 is a schematic view of the structure of the second support member in the structure shown in FIG. 58;

FIG. 62 is an enlarged view of the structure at W in the structure shown in FIG. 61;

FIG. 63 is a schematic view of the configuration of the boss in the configuration shown in FIG. 62;

FIG. 64 is a schematic view of the structure of the first support in the structure shown in FIG. 58;

FIG. 65 is a schematic view of a construction of another implementation of positioning the strut in the first support based on the telescoping leg shown in FIG. 58;

FIG. 66 is an enlarged view of the structure at Y in the structure shown in FIG. 57;

FIG. 67 is a schematic view of the installation of one of the legs of the multi-leg stand of FIG. 10;

Fig. 68 is an enlarged view of the structure at Z in the structure shown in fig. 67.

Detailed Description

The present utility model will be described in further detail with reference to the accompanying drawings.

The present embodiment is only for explanation of the present utility model and is not to be construed as limiting the present utility model, and those skilled in the art can make modifications to the present embodiment which do not contribute to the utility model as required after reading the present specification, but are protected by the patent laws within the scope of the appended claims.

Referring to fig. 1 to 48, and particularly to fig. 5, 7, 12, 37, 40, 46, etc., an embodiment of the present utility model proposes a telescopic leg 1a, wherein the telescopic leg 1a is one of the legs 1 of the multi-leg stand, the telescopic leg 1a comprises a first support member 100 and a second support member 200, the first support member 100 is provided with at least one first sliding groove 101 and at least one first mounting opening 102, the at least one first mounting opening 102 corresponds to the at least one first sliding groove 101 respectively, the first mounting opening 102 communicates with the corresponding first sliding groove 101, the second support member 200 comprises at least one strut 210 corresponding to the at least one first sliding groove 101 respectively, a first end of the strut 210 is insertable into the corresponding first sliding groove 101 through the corresponding first mounting opening 102 such that the strut 210 is slidably mounted to the first sliding groove 101, the strut 210 is slidably mounted to the corresponding first sliding groove 101 to change the length of the telescopic leg 1a, and the first end of the strut 210 gradually moves away from the first support member 100 during extension of the telescopic leg 1 a; the strut 210 is configured to be positionable in the first support 100 when the telescoping leg 1a is in a supported state.

When the telescopic support 1a of the embodiment of the present utility model is not used, the support rod 210 is slidable relative to the first sliding groove 101 so that the length of the telescopic support 1a is shortened, and thus the occupied volume of the telescopic support 1a is reduced, and thus the occupied volume of the telescopic support is reduced. And the telescopic leg 1a is provided with a first mounting opening 102 to facilitate the mounting of the strut 210 to the first support 100.

It will be appreciated that when the telescoping leg 1a is extended to its longest state, the first end of the strut 210 protrudes from the first sliding channel 101.

It is understood that the number of the first mounting openings 102 is the same as the first sliding grooves 101, and the number of the struts 210 is the same as the first sliding grooves 101.

Illustratively, the multi-foot stand may be a tripod stand, a tetrapod stand, a pentapod stand, a hexapod stand, i.e., the number of feet 1 of the multi-foot stand may be 3, 4, 5, 6, etc.

Illustratively, referring to fig. 38, the multi-foot stand is used to support the power consumption main body 2, and the power consumption main body 2 may be a fan, a lamp, a mobile phone, a tablet, a camera, or the like. For example, when the power consumption body 2 is a lamp, the multi-foot stand may be a light supplementing stand, and when the power consumption body 2 is a photographing terminal 2 such as a mobile phone, a tablet, a camera, or the like, the multi-foot stand may be a photographing stand.

Illustratively, referring to fig. 37, the first mounting opening 102 communicates with an end of the first sliding groove 101, or the first mounting opening 102 communicates with a side of the first sliding groove 101, or the first mounting opening 102 communicates with both an end and a side of the first sliding groove 101. The provision of the first mounting opening 102 has the advantage of facilitating the insertion of the strut 210 into the first sliding channel 101. It will be appreciated that the first mounting opening 102 may be any opening that facilitates insertion of the strut 210 into the first slide channel 101.

Illustratively, the struts 210 may be positioned at any location on the first support 100, or the struts 210 may be positioned at a particular location on the first support 100.

Illustratively, the strut 210 is in damping contact with the first sliding channel 101 to enable positioning at the first support 100 when the telescoping leg 1a is in a supported state, e.g. the strut 210 is interference fit with the first sliding channel 101 or the strut 210 is provided with damping shims with the inner wall of the first sliding channel 101.

Illustratively, a locking member is disposed between the strut 210 and the first support 100; a locking member, which may be mounted to the first support 100, locks the strut 210 to the first support 100 when the telescoping leg 1a is in the support state, and which may be adjusted to lock or unlock the strut 210 relative to the first support frame. For example, the locking member may be a threaded member threadedly mounted to the first support member 100, rotating the threaded member may cause it to abut or release the strut 210, the locking member may be a cam locking member rotatably mounted to the first support member 100, and rotating the boss locking member may cause it to abut or release the strut 210.

For example, referring to fig. 6, 46, etc., the first support 100 has a first positioning protrusion 110, the strut 210 has a second positioning protrusion 211a, the second positioning protrusion 211a abuts against or slides over the first positioning protrusion 110 when the strut 210 slides with respect to the first sliding groove 101, and the second positioning protrusion 211a abuts against the first positioning protrusion 110 to position the strut 210 to the first support 100 when the telescopic leg 1a is in a supported state. For example, the boss 211 or a portion of the boss 211 may be the second positioning boss 211a.

For example, referring to fig. 32 or 65, in the telescopic leg 1a, when the strut 210 is only subjected to a tensile force or a compressive force in the sliding direction thereof, the strut 210 is in a loose fit or a tight fit with the first support 100, for example, the strut 210 is in a clearance fit with the first sliding groove 101. When the telescopic foot 1a is in a supported state, (for example only, the telescopic foot 1a may have an angle of 45 ° -89.9 °, such as 45 °, 60 °, 67 °, 75 °, etc.) with the plumb line, the pressure F of the first support 100 against the strut 210 may be decomposed into a component F1 perpendicular to its sliding direction and a component F2 along its sliding direction, the component F1 providing a friction force (tangential constraint force) F between the first support 100 and the first support 100, when f=f2, the strut 210 is positioned to the first support 100. The first support 100 has a first contact surface 103 in contact with the strut 210, the strut 210 is in frictional contact with the first contact surface 103 when the telescopic leg 1a is in the supporting state, F1 is parallel to the first contact surface 103, F2 is perpendicular to the first contact surface 103, F is parallel to the first contact surface 103, and when f=f2, the strut 210 is positioned at the first support 100. The first contact surface 103 may be two opposite sides of the first sliding groove 101.

Illustratively, when the telescoping leg 1a is in a supported state, the first support 100 is supported on a support surface 1001, or the second support 200 is supported on a support surface 1001.

Illustratively, when the telescopic leg 1a is in the supporting state, the first supporting member 100 is supported on a supporting surface 1001, the strut 210 may be directly supported on the supporting surface 1001, and the strut 210 may be indirectly supported on the supporting surface 1001.

Illustratively, the first sliding groove 101 is a cylindrical groove (may be a single cylindrical groove, a stepped cylindrical groove, etc.), such as a cylindrical groove, fang Zhucao, a polygonal cylindrical shape, etc. It will be appreciated that when the first support 100 is an injection molded part, the first sliding channel 101 is allowed to have a draft angle, in which case the first sliding channel 101 is an approximately cylindrical channel.

Illustratively, the first sliding channel 101 may be any shaped channel that accommodates sliding movement of the strut 210.

Illustratively, the struts 210 may be columnar (may be single columnar, stepped columnar, etc.), such as cylindrical rods, square columnar rods, polygonal columnar rods, etc.

In some implementations of embodiments of the present utility model, referring to fig. 1-48, and in particular to fig. 10 and 38, the first support 100 is configured to be supported on a support surface 1001 when the telescoping leg 1a is in a supported state, the second support 200 further comprises a foot pad 220, and the foot pad 220 is configured to be supported on the support surface 1001 when the telescoping leg 1a is in a supported state; after the strut 210 is inserted into the first sliding groove 101 through the first mounting opening 102, a first end of the strut 210 may protrude from the first sliding groove 101 such that the strut 210 is detachably connected with the footer 220.

The advantage of removably mounting the foot pad 220 with the post 210 is that the post 210 is conveniently inserted into the first slide through the first mounting opening 102.

Illustratively, a first end of strut 210 is detachably connected to foot pad 220.

Other examples are where the other portion of the strut 210 protruding from the first sliding groove 101 is detachably connected at the foot pad 220.

Illustratively, the footbed 220 is one piece, and at least one strut 210 is removably coupled to the footbed 220.

Illustratively, the foot pad 220 includes at least one spaced apart pad member with at least one strut 210 removably coupled to the at least one pad member, respectively.

Illustratively, the footrests 220 may be any shape, such as block, bar, sheet, etc.

For example, referring to fig. 25-31, 42, 58, etc., the foot pad 220 has a pad holding portion 221, and when the telescopic leg 1a is supported on the supporting surface 1001, the pad holding portion 221 contacts with the supporting surface 1001, and the pad holding portion 221 may be made of soft materials such as rubber, plastic, etc.

In some implementations of embodiments of the present utility model, referring to fig. 1-48, and in particular to fig. 3, 42, strut 210 includes a stem 212 and a boss 211, boss 211 protruding from stem 212; the rod 212 has a first end, the first end of the rod 212 is insertable into the corresponding first sliding groove 101 through the corresponding first mounting opening 102 such that the strut 210 is slidably mounted in the first sliding groove 101, the first end of the rod 212 extends out of the first sliding groove 101 such that the rod 212 is detachably connected to the foot pad 220, and the first end of the strut 210 is gradually moved away from the first support 100 during extension of the telescopic leg 1 a.

In the process that the supporting rod 210 is inserted into the first sliding groove 101 through the first mounting opening 102, the first end of the rod portion 212 sequentially passes through the first mounting opening 102 and the first sliding groove 101; the first sliding groove 101 is internally provided with a first limiting wall 104, and after the supporting rod 210 is installed in the first sliding groove 101, the first limiting wall 104 is positioned between the protruding part 211 and the first end of the rod part 212; the boss 211 is configured to abut against the first stopper wall 104 when the telescopic leg 1a is extended to the longest state. The advantage of providing the first limiting wall 104 is that the telescopic leg 1a is prevented from being pulled out of the first sliding groove 101 during the extension process, so that the telescopic leg 1a is complete during use.

It will be appreciated that the first end or other portion of the shaft 212 is removably coupled to the foot pad 220

It will be appreciated that the first end of the shaft 212 is the first end of the strut 210.

Illustratively, when the telescoping leg 1a is in the supported state, the strut 210 may be positioned on the first support 100 by the engagement of the stem 212 with the first sliding channel 101, or the engagement of the boss 211 with the first sliding channel 101, and the engagement of the stem 212, boss 211, and first sliding channel 101.

Illustratively, the boss 211 is located at one end or other portion of the stem 212.

Illustratively, the stem 212 is cylindrical, e.g., cylindrical, polygonal, etc.

Illustratively, the boss 211 is cylindrical, e.g., cylindrical, polygonal, etc.

Other examples, the strut 210 includes only the stem 212.

In some implementations of embodiments of the present utility model, referring to fig. 1-65, and in particular to fig. 5, 46, 58-60, the first sliding channel 101 includes a first sliding sub-channel 101a and a second sliding sub-channel 101b, the first sliding sub-channel 101a being in communication with the second sliding sub-channel 101b, and the first mounting opening 102 being in communication with the first sliding sub-channel 101 a; the first sliding sub-groove 101a is fitted with the boss 211 of the strut 210, and the second sliding sub-groove 101b is fitted with the rod 212 of the strut 210; the first limiting wall 104 is located in the first sliding sub-groove 101a.

The above arrangement has the advantage of making the sliding of the strut 210 with respect to the first support 100 more stable.

It will be appreciated that the first sliding sub-groove 101a matches the cross-sectional shape of the boss 211 and the second sliding sub-groove 101b matches the cross-sectional shape of the stem 212.

Illustratively, the first sliding sub-groove 101a is in direct communication with the second sliding sub-groove 101b, and the first limiting wall 104 is located at the juncture of the first sliding sub-groove 101a and the second sliding sub-groove 101 b.

Other examples are where the first sliding sub-groove 101a is in indirect communication with the second sliding sub-groove 101 b.

Illustratively, the strut 210 may be positioned in the first sliding channel 101 by the engagement of the first sliding sub-channel 101a with the boss 211, or by the engagement of the second sliding sub-channel 101b with the stem 212.

Illustratively, the first limiting wall 104 is located elsewhere in the first sliding sub-groove 101 a.

Illustratively, the first sliding sub groove 101a is a cylindrical groove, the second sliding sub groove 101b is a cylindrical groove, and so on.

Illustratively, the first sliding sub groove 101a is an approximately cylindrical groove (mesa-shaped groove) having a certain draft angle.

Illustratively, the first sliding sub-groove 101a is in indirect communication with the second sliding sub-groove 101 b.

In some implementations of the embodiments of the present utility model, referring to fig. 13 and 46, the first sliding sub-groove 101a is provided with a first positioning protrusion 110, and when the strut 210 slides relative to the first sliding groove 101, the protrusion 211 abuts against or slides over the first positioning protrusion 110, and when the protrusion 211 abuts against the first positioning protrusion 110, the strut 210 is positioned on the first support 100 when the telescopic leg 1a is in the supporting state; the first mounting opening 102 communicates with the second sliding sub-groove 101 b; the first mounting opening 102 is configured to serve as a deformation space for the strut 210 when the boss 211 slides over the first positioning boss 110.

The advantage of providing the first positioning protrusion 110 and the protrusion 211 is that when the protrusion 211 abuts against the first positioning protrusion 110, an abutting force is provided for the supporting rod 210 to abut against the first supporting member 100, so that the supporting rod 210 can be positioned on the first supporting member 100 in the supporting state of the telescopic supporting leg 1 a. And the boss 211 can slide over the first positioning boss 110 without affecting the telescoping of the telescoping leg 1 a. And the first mounting opening 102 also serves as a deformation space of the strut 210, so that the telescopic leg 1a is more compact in structure.

Illustratively, the protrusion 211 sliding over the first positioning protrusion 110 may mean that the telescopic leg 1a is in a supporting state, and when the pressure applied to the telescopic leg 1a is sufficiently large in a state where the protrusion 211 is abutted against the first positioning protrusion 110, the protrusion 211 slides over the first positioning protrusion 110, so that the strut 210 may be received in the first support 100.

Illustratively, the protrusion 211 sliding over the first positioning protrusion 110 may further mean that the telescopic leg 1a is in a shortest state (or other state), the first positioning protrusion 110 is not abutted against the protrusion 211, when the telescopic leg 1a is subjected to a sufficiently large tensile force, the strut 210 protrudes with respect to the first support 100, the protrusion 211 slides over the first positioning protrusion 110, and after the protrusion 211 slides over the first positioning protrusion 110, the protrusion 211 may be abutted against the first positioning protrusion 110 to realize that the strut 210 is positioned on the first support 100 in the supported state.

Obviously, the abutment of the projection 211 with the first positioning projection 110 allows the telescopic leg 1a to achieve the positioning of the strut 210 to the first support 100 at a specific length.

Illustratively, in one implementation, the telescoping leg 1a is positioned to the first support 100 by engagement of the boss 211 with the first positioning boss 110 to effect positioning of the strut 210.

Illustratively, during sliding of the boss 211 over the first positioning boss 110, the boss 211 deforms, and/or the first positioning boss 110 deforms, such that the boss 211 may slide over the first positioning boss 110.

Illustratively, the first positioning protrusion 110 has two opposite first sidewalls 111, from the bottom end of the first positioning protrusion 110 to the top end thereof, the distance between the two first sidewalls 111 is narrowed, the protrusion 211 may abut against the first sidewalls 111, and the protrusion 211 is in sliding contact with the first sidewalls 111 and the protrusion 211 is in sliding contact with the top end of the first positioning protrusion 110 during the process of sliding the protrusion 211 over the first positioning protrusion 110. This has the advantage that wear on the boss 211 and the first positioning boss 110 is less likely to occur during sliding of the boss 211 over the first positioning boss 110.

Illustratively, the top ends of the first side walls 111 and the first positioning protrusions 110 are in gradual transition, for example, the top ends of the first side walls 111 and the first positioning protrusions 110 are in smooth curved transition, and for example, the top ends of the first side walls 111 and the first positioning protrusions 110 are in inclined transition.

It can be appreciated that when the protrusion 211 abuts against the first positioning protrusion 110, the protrusion 211 abuts against one of the first sidewalls 111 of the first positioning protrusion 110.

In some implementations of embodiments of the utility model, referring to fig. 39-48, the second sliding sub-groove 101b surrounds the stem 212, the second sliding sub-groove 101b extends to a first cross section perpendicular to the telescoping direction of the telescoping leg 1a, the first mounting opening 102 extends to the first cross section, the second sliding sub-groove 101b and the first mounting opening 102 are located on opposite sides of the first cross section, respectively; a clamping space 105 matched with the protruding part 211 is arranged between the first limiting wall 104 and the first positioning protrusion 110, and the clamping space 105 is used for clamping the protruding part 211; the rod 212 is cylindrical; the maximum thickness of the first positioning protrusion 110 is 5% -15% of the diameter of the shaft 212; the third section is perpendicular to the telescopic direction of the telescopic support leg 1a, the first positioning protrusion 110 extends to the third section, and the first positioning protrusion 110 and the second sliding sub-groove 101b are respectively positioned on two opposite sides of the third section; the distance from the third section to the first section is equal to or greater than one time the diameter of the shaft 212; when the boss 211 slides over the first positioning boss 110, a section of the rod 212 is exposed from the second sliding sub groove 101b so that the strut 210 is bent and deformed.

The above arrangement has the advantage that when the protrusion 211 slides over the first positioning protrusion 110, the rod 212 is exposed from the second sliding sub-groove 101b, and the maximum thickness of the first positioning protrusion 110 is 5% -15% of the diameter of the rod 212, and the distance from the top end of the first positioning protrusion 110 to the first cross section is equal to or greater than one time of the diameter of the rod 212, so that the support rod 210 is more easily deformed, and the telescopic use of the telescopic leg 1a is facilitated.

On the other hand, the protruding portion 211 is just clamped in the clamping space 105 after sliding over the first positioning protrusion 110, so that the supporting rod 210 is prevented from loosening or sliding relative to the first supporting member 100 when the user lifts the multi-foot stand in the supporting state.

It is understood that the second sliding sub-groove 101b extends to the first cross section means that one end (or edge) of the second sliding sub-groove 101b is attached to the first cross section, and the second sliding sub-groove 101b is located at one side of the first cross section.

It is understood that the first mounting opening 102 extends to the first cross section means that one end (or edge) of the first mounting opening 102 is attached to the first cross section, and the first mounting opening 102 is located at one side of the first cross section.

As will be appreciated, the first positioning protrusion 110 extending to the third section means that one end (or edge) of the first positioning protrusion 110 is attached to the third section, and the first positioning protrusion 110 is located at one side of the first section.

Illustratively, the first limiting wall 104 corresponds to the first positioning protrusion 110 in the telescoping direction, or the first limiting wall 104 does not correspond to the first positioning protrusion 110 in the telescoping direction.

Illustratively, the second sliding sub-groove 101b is a cylindrical groove, and the second sliding sub-groove 101b is a clearance fit, a transition fit, an interference fit with the stem 212.

Illustratively, the second sliding sub-groove 101b is an approximately cylindrical groove having a draft angle, and the second sliding sub-groove 101b is a clearance fit, a transition fit, or an interference fit with the stem 212.

Illustratively, the maximum thickness of the first positioning protrusion 110 is a distance from the tip of the first positioning protrusion 110 to the inner wall of the first sliding sub groove 101 a.

In some implementations of embodiments of the utility model, referring to fig. 6, 46, the boss 211 is located at the second end of the stem 212; the rod portion 212 is screwed with the pad 220, the protruding portion 211 is provided with a first adjusting portion 211b, after the strut 210 is inserted into the first sliding groove 101 through the first mounting opening 102, the first adjusting portion 211b is configured to be matched with an adjusting piece, the adjusting piece is provided with a second adjusting portion matched with the first adjusting portion 211b, the adjusting piece can be matched with the first adjusting portion 211b through the first mounting opening 102 and rotate, and the adjusting piece is configured to drive the rod portion 212 to rotate when the adjusting piece rotates so that the rod portion 212 is fastened or unfastened with the pad 220; the first adjusting portion 211b is a first adjusting groove 211b, the second adjusting portion is a second adjusting protrusion, or the first adjusting portion 211b is a first adjusting protrusion 211b, and the second adjusting portion is a second adjusting groove.

The above arrangement has the advantage of facilitating the rotational mounting of the strut 210 to the foot pad 220.

The screw-in connection may be a threaded connection or a non-threaded connection, for example. For example, the rod 212 is provided with a protruding block, the pad 220 is provided with a non-spiral groove, the protruding block is matched with the spiral groove, and the rod 212 can be screwed into the pad 220 by rotating the rod 212.

Illustratively, the adjustment member may be a screwdriver, which may be operated by a user.

The adjusting element may be, for example, a drive rod which is driven by the machine, for example, by an output shaft of an electric motor.

Illustratively, the first adjustment groove 211b may be a plum blossom groove, a straight groove, a cross groove, a polygonal groove, etc., and the second adjustment protrusion may be a plum blossom protrusion, a straight protrusion, a cross protrusion, a polygonal protrusion, etc. adapted to the first adjustment groove 211 b.

Illustratively, the first adjustment protrusion 211b may be a plum blossom protrusion, a straight protrusion, a cross protrusion, a polygonal protrusion, etc., and the second adjustment groove may be a plum blossom groove, a straight groove, a cross groove, a polygonal groove, etc.

It is understood that the first adjustment groove 211b may be any shape that is circumferentially fixed relative to the second adjustment projection. The first adjustment projection 211b may be of any shape that is circumferentially fixed relative to the second adjustment projection.

In some implementations of embodiments of the present utility model, referring to fig. 14-21, the strut 210 is riveted with the pad 220, the strut 210 is snapped with the pad 220, or the strut 210 is magnetically connected with the pad 220.

The above arrangement has the advantage that the foot pad 220 can be held to the first support 100 when the telescopic leg 1a is in the shortest state, so that the second support 200 can be conveniently received in the first support 100.

Illustratively, referring to fig. 18, the strut 210 includes a rivet 214, the rivet 214 being capable of passing through the pad 220 and being riveted to the pad 220; or the pad 220 has a rivet 214, and the rivet 214 passes through the strut 210 and is riveted with the pad 220.

Illustratively, referring to fig. 16, the post 210 is an interference fit with the aperture 208 of the foot pad 220, or referring to fig. 17, the aperture 208 of the post 210 is an interference fit with the post 226 of the foot pad 220.

Referring to fig. 19 and 20, the strut 210 is provided with a third engaging portion 213, the pad 220 is provided with a fourth engaging portion 222, and the third engaging portion 213 is engaged with the fourth engaging portion 222.

As an example, referring to fig. 19 and 20, the third clamping portion 213 has a clamping protrusion, the fourth clamping portion 222 has a clamping groove adapted to the clamping protrusion, or the fourth clamping portion 222 has a clamping protrusion, and the third clamping portion 213 has a clamping groove adapted to the clamping protrusion. In order to facilitate the matching and the separation of the clamping bulge or the clamping groove, the clamping bulge is arranged on a cantilever, or the clamping groove is arranged on a cantilever.

For example, referring to fig. 19, the third clamping portion 213 has a third cantilever 213a and a clamping protrusion provided on the third cantilever 213a, the fourth clamping portion 222 has an adaptive clamping groove, the clamping protrusion can slide into the clamping groove to clamp the strut 210 to the pad 220, and the clamping protrusion can slide out of the clamping groove to separate the strut 210 from the pad 220. The third cantilever 213a is elastically deformed during the sliding of the clamping protrusion into or out of the clamping groove.

For example, the third clamping portion 213 has a third cantilever 213a and a clamping groove provided in the third cantilever 213a, the fourth clamping portion 222 has an adaptive clamping protrusion, the clamping protrusion can slide into the clamping groove to clamp the strut 210 to the pad 220, and the clamping protrusion can slide out of the clamping groove to separate the strut 210 from the pad 220. The third cantilever 213a is elastically deformed during the sliding of the clamping protrusion into or out of the clamping groove.

For example, referring to fig. 20, the fourth clamping portion 222 has a fourth cantilever 222a and a clamping protrusion provided on the fourth cantilever 222a, the third clamping portion 213 has an adaptive clamping groove, the clamping protrusion can slide into the clamping groove to clamp the strut 210 to the pad 220, and the clamping protrusion can slide out of the clamping groove to separate the strut 210 from the pad 220. The fourth cantilever 222a is elastically deformed during the sliding of the clamping protrusion into or out of the clamping groove.

For example, the fourth clamping portion 222 has a fourth cantilever 222a and a clamping groove provided in the fourth cantilever 222a, the third clamping portion 213 has an adaptive clamping protrusion, the clamping protrusion can slide into the clamping groove to clamp the strut 210 to the pad 220, and the clamping protrusion can slide out of the clamping groove to separate the strut 210 from the pad 220. The fourth cantilever 222a is elastically deformed during the sliding of the clamping protrusion into or out of the clamping groove.

Illustratively, referring to fig. 21, the strut 210 is provided with a first magnetic attraction portion 216, the pad 220 is provided with a second magnetic attraction portion 227, the first magnetic attraction portion 216 and the second magnetic attraction portion 227 attract each other, the first magnetic attraction portion 216 and the second magnetic attraction portion 227 are both permanent magnets, or the first magnetic attraction portion 216 is a permanent magnet, the second magnetic attraction portion 227 is a ferromagnetic body, or the first magnetic attraction portion 216 is a ferromagnetic body, and the second magnetic attraction portion 227 is a permanent magnet.

In some implementations of the embodiments of the present utility model, referring to fig. 25-31, 45 and 66, the first support 100 is provided with a first clamping portion 120, and the pad 220 is provided with a second clamping portion 223; the first clamping portion 120 is configured to be clamped to the second clamping portion 223 when the telescopic leg 1a is contracted to the shortest state.

Referring to fig. 25 or 45, the first clamping portion 120 has a first cantilever 120a and a clamping protrusion provided on the first cantilever 120a, the second clamping portion 223 has a clamping groove adapted to the first cantilever, the clamping protrusion can slide into the clamping groove to clamp the pad 220 to the first support 100, and the clamping protrusion can slide out of the clamping groove to separate the pad 220 from the first support 100. It will be appreciated that the first cantilever arm 120a is elastically deformed during the sliding of the clamping projection into or out of the clamping groove.

For example, referring to fig. 26, the first clamping portion 120 has a first cantilever 120a and a clamping groove provided on the first cantilever 120a, the second clamping portion 223 has a clamping protrusion adapted to slide into the clamping groove so that the pad 220 is clamped to the first support 100, and the clamping protrusion can slide out of the clamping groove to separate the pad 220 from the first support 100. It will be appreciated that the first cantilever arm 120a is elastically deformed during the sliding of the clamping projection into or out of the clamping groove.

For example, referring to fig. 27 or 66, the second clamping portion 223 has a second cantilever 223a and a clamping protrusion provided on the second cantilever 223a, the first clamping portion 120 has an adaptive clamping groove, the clamping protrusion can slide into the clamping groove so that the pad 220 is clamped to the first support 100, and the clamping protrusion can slide out of the clamping groove to separate the pad 220 from the first support 100. It will be appreciated that the second cantilever arm 223a is elastically deformed during the sliding of the clamping projection into or out of the clamping groove.

For example, referring to fig. 28, the second clamping portion 223 has a second cantilever 223a and a clamping groove provided on the second cantilever 223a, the first clamping portion 120 has a clamping protrusion adapted to slide into the clamping groove so that the pad 220 is clamped to the first support 100, and the clamping protrusion can slide out of the clamping groove to separate the pad 220 from the first support 100. It will be appreciated that the second cantilever arm 223a is elastically deformed during the sliding of the clamping projection into or out of the clamping groove.

Illustratively, referring to fig. 29, the first support 100 is provided with a post 160 and the foot pad 220 is provided with a hole 209, and the post 160 of the first support 100 is interference fit with the hole 209 of the foot pad 220 such that the foot pad 220 is held to the first support 100 when the telescoping leg 1a is in the shortest state.

Illustratively, referring to fig. 30, the first support 100 is provided with a hole 1011 and the foot pad 220 is provided with a post 228, and the hole 1011 of the first support 100 is interference fit with the post 228 of the foot pad 220 such that the foot pad 220 is held to the first support 100 when the telescoping leg 1a is in the shortest state.

As another example, referring to fig. 31, the first support 100 is provided with a third magnetic attraction portion 130, the pad 220 is provided with a fourth magnetic attraction portion 224, the third magnetic attraction portion 130 and the fourth magnetic attraction portion 224 attract each other, the third magnetic attraction portion 130 and the fourth magnetic attraction portion 224 are both permanent magnets, or the third magnetic attraction portion 130 is a permanent magnet, the fourth magnetic attraction portion 224 is a ferromagnetic body, or the third magnetic attraction portion 130 is a ferromagnetic body, and the fourth magnetic attraction portion 224 is a permanent magnet.

In some implementations of embodiments of the present utility model, referring to fig. 33, 39, 49, etc., the pad 220 has a second limiting wall 201, the second limiting wall 201 being configured to abut against the first support 100 when the telescopic leg 1a is contracted to the shortest state; the first support 100 has a first proximal edge 106a and the foot pad 220 has a second proximal edge 202a, the first proximal edge 106a being aligned with the second proximal edge 202a when the telescoping leg 1a is telescoping to the shortest position.

The advantage of the above arrangement is that, on the one hand, the second support 200 is prevented from being excessively received in the first support 100, and on the other hand, the first approaching edge 106a is aligned with the second approaching edge 202a, so that the telescopic leg 1a is more compact in structure.

It is understood that the first approaching edge 106a is an edge of the first support 100 near the pad 220, and the second approaching edge 202a is an edge of the pad 220 near the first support 100.

Illustratively, the first proximate edge 106a fully circumferentially surrounds the first support 100 and the second proximate edge 202a fully circumferentially surrounds the foot pad 220.

Illustratively, the first proximal edge 106a is partially disposed around the first support 100, the second proximal edge 202a is partially disposed around the foot pad 220, e.g., the first proximal edge 106a is partially disposed around the first support 100, and the second proximal edge 202a is partially disposed around the foot pad 220.

Illustratively, when the telescoping leg 1a is telescoping to the shortest state, the second limiting wall 201 abuts against the end of the first support 100.

In some implementations of the embodiments of the present utility model, referring to fig. 3, 43 and 58, the number of struts 210 is 2, the number of first sliding grooves 101 is 2, and the 2 first sliding grooves 101 are located on opposite sides of the first support 100, respectively.

The advantage of this arrangement is that the second support 200 is circumferentially fixed to the first support 100, and the telescopic foot 1a is more stable overall in the supported state.

Other examples, the number of struts 210 is 1, 3, 4, 5, etc.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46, etc., the first support 100 has a first positioning protrusion 110, the strut 210 has a second positioning protrusion 211a, the second positioning protrusion 211a abuts against or slides over the first positioning protrusion 110 when the strut 210 slides with respect to the first sliding groove 101, and the second positioning protrusion 211a abuts against the first positioning protrusion 110 to position the strut 210 to the first support 100 when the telescopic leg 1a is in a supported state.

The first positioning protrusion 110 and the second positioning protrusion 211a have the advantage that when the second positioning protrusion 211a abuts against the first positioning protrusion 110, an abutting force is provided for the supporting rod 210 to abut against the first supporting member 100, so that the supporting rod 210 can be positioned on the first supporting member 100 in the supporting state of the telescopic supporting leg 1 a. And the second positioning protrusion 211a can slide over the first positioning protrusion 110 without affecting the extension and retraction of the extension and retraction foot 1 a.

Illustratively, the sliding of the second positioning protrusion 211a over the first positioning protrusion 110 may mean that the telescopic leg 1a is in a supported state, in a state in which the second positioning protrusion 211a is abutted against the first positioning protrusion 110, and when the pressure applied to the telescopic leg 1a is sufficiently large, the second positioning protrusion 211a slides over the first positioning protrusion 110, so that the strut 210 may be received in the first supporter 100.

As an example, the second positioning protrusion 211a sliding over the first positioning protrusion 110 may also mean that the first positioning protrusion 110 does not abut against the second positioning protrusion 211a when the telescopic leg 1a is in a storage state, when the tensile force applied to the telescopic leg 1a is sufficiently large, the strut 210 protrudes with respect to the first support 100, the second positioning protrusion 211a sliding over the first positioning protrusion 110, and after the second positioning protrusion 211a sliding over the first positioning protrusion 110, the second positioning protrusion 211a may abut against the first positioning protrusion 110 to realize positioning of the strut 210 to the first support 100 in a supporting state.

Obviously, the abutment of the second positioning protrusion 211a with the first positioning protrusion 110 allows the telescopic leg 1a to achieve the positioning of the strut 210 to the first support 100 at a specific length.

Illustratively, in one implementation, the telescoping leg 1a is positioned to the first support 100 by the engagement of the second positioning protrusion 211a with the first positioning protrusion 110.

Illustratively, during the sliding of the second positioning protrusion 211a over the first positioning protrusion 110, the second positioning protrusion 211a is deformed, and/or the first positioning protrusion 110 is deformed, such that the second positioning protrusion 211a may slide over the first positioning protrusion 110. (deformation of the second positioning protrusion 211a may be understood as deformation of the second positioning protrusion 211a itself, or deformation of a member carrying the second positioning protrusion 211a, deformation of the first positioning protrusion 110 may be understood as deformation of the first positioning protrusion 110 itself, or deformation of a member carrying the first positioning protrusion 110).

Illustratively, the first positioning protrusion 110 has two opposite first sidewalls 111, from the bottom end of the first positioning protrusion 110 to the top end thereof, the distance between the two first sidewalls 111 is narrowed, the second positioning protrusion 211a may abut against the first sidewalls 111, and the second positioning protrusion 211a is in sliding contact with the first sidewalls 111 and the second positioning protrusion 211a is in sliding contact with the top end of the first positioning protrusion 110 during the sliding of the second positioning protrusion 211a over the first positioning protrusion 110. The advantage of this arrangement is that wear on the second positioning protrusion 211a and the first positioning protrusion 110 is not easily formed during the sliding of the second positioning protrusion 211a over the first positioning protrusion 110.

It can be appreciated that when the second positioning protrusion 211a abuts against the first positioning protrusion 110, the second positioning protrusion 211a abuts against one of the first side walls 111 of the first positioning protrusion 110.

The second positioning protrusion 211a may be the protrusion 211, or the second positioning protrusion 211a may be a part of the protrusion 211, for example.

For example, the second positioning protrusion 211a may have a shape similar to or identical to the first positioning protrusion 110.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46-48, strut 210 includes a stem 212 and a boss 211, boss 211 protruding from stem 212; the first end of the rod 212 can be inserted into the corresponding first sliding groove 101 through the corresponding first mounting opening 102 so that the strut 210 is slidably mounted in the first sliding groove 101, and the first end of the strut 212 is gradually far away from the first supporting member 100 during the extension of the telescopic leg 1 a; during the process that the support rod 210 is inserted into the first sliding groove 101 through the first mounting opening 102, the first end of the rod 212 sequentially passes through the first mounting opening 102 and the first sliding groove 101, and after the support rod 210 is inserted into the first sliding groove 101 through the first mounting opening 102, the first end of the rod 212 can extend out of the first sliding groove 101; the first sliding groove 101 is internally provided with a first limiting wall 104, and after the first installation opening 102 of the supporting rod 210 is inserted into the first sliding groove 101, the first limiting wall 104 is positioned between the protruding part 211 and the first end of the rod part 212; the protruding part 211 is propped against the first limiting wall 104 when the telescopic support leg 1a stretches to the longest state; the second positioning protrusion 211a is a protrusion 211.

The benefit of the above arrangement is that the protruding portion 211 plays a limiting role, and the strut 210 is prevented from sliding out of the first sliding groove 101, so that the telescopic leg 1a is kept late in the use process, and the protruding portion 211 also plays a positioning role, so that the structure of the telescopic leg 1a is more compact.

Illustratively, the second locating boss 211a may be part of the boss 211.

Other examples, the second positioning protrusion 211a may be the entirety of the protrusion 211.

Illustratively, the strut 210 is provided with only the second positioning protrusion 211a, and no protrusion 211 is provided.

Illustratively, the second locating projection 211a is located at one end or other portion of the stem 212.

In some implementations of embodiments of the present utility model, referring to fig. 10, 33, and 41-42, the second support 200 is configured to be supported on a support surface 1001 when the telescopic leg 1a is in a supported state, the first support 100 has a second side 107b opposite to the first side 107a, and the second side 107b is close to the support surface 1001 relative to the first side 107a when the telescopic leg 1a is in the supported state, and the first mounting opening 102 is provided in the second side 107b of the first support 100.

The benefit of the above arrangement is that, on the one hand, the telescopic leg 1a is more attractive, when the user uses the telescopic leg 1a, the strut 210 is prevented from extending and retracting in the first sliding groove 101 of the first support 100, and on the other hand, the first mounting opening 102 is arranged on the second side 107b, so that the telescopic leg 1a is safer to use, and when the telescopic leg 1a extends and contracts, the user's hand is not easy to be blocked.

It will be appreciated that in the supported state the outer normal direction of the second side surface 107b is directed towards the support surface 1001 and the outer normal direction of the first side surface 107a is directed away from the support surface 1001.

By way of example only, when the telescopic foot 1a is in the supported state, a plumb line passing through the second side 107b also passes through the first side 107a.

It will be appreciated that when the telescopic foot 1a is in the supported state, the second side 107b is the lower side of the first support 100 and the first side 107a is the upper side of the first support 100.

Other examples include the first mounting opening 102 being provided in the first side 107a.

Illustratively, when the telescoping leg 1a is in a supported state, the strut 210 is directly supported to the support surface 1001.

Illustratively, when the telescoping leg 1a is in the support state, the foot pad 220 is directly supported to the support surface 1001.

In some implementations of embodiments of the present utility model, referring to fig. 3, 42, the strut 210 has opposite first and second ends; the first end of the strut 210 may be inserted into the corresponding first sliding groove 101 through the corresponding first mounting opening 102, and the first end of the strut 210 protrudes from the first sliding groove 101 when the telescopic leg 1a is extended.

The embodiment of the utility model also provides a multi-foot bracket, referring to fig. 1 and 49, comprising a supporting rod 3 and at least three supporting feet 1, wherein the supporting rod 3 is used for supporting an electricity utilization main body 2, and the at least three supporting feet 1 are used for supporting the supporting rod 3; at least one of the at least three legs 1 is a telescoping leg 1a.

When the multi-foot stand according to the embodiment of the present utility model is not used, one of the feet 1 is a telescopic foot 1a, and the support rod 210 is slidable with respect to the first support 100, so that the length of the telescopic foot 1a is shortened, and thus the occupied volume of the multi-foot stand is reduced. Also, when the multi-legged support is used, the length of the telescopic leg 1a is adjustable, so that the multi-legged support can better adapt to uneven or inclined supporting surface 1001.

Illustratively, the support rod 3 is a fixed length rod, or the support rod 3 is a telescoping rod.

Illustratively, when the telescoping leg 1a is suspended relative to the support surface 1001, the telescoping leg 1a can be brought into contact with the support surface 1001 by adjusting the telescoping leg 1 a.

For example, the power consumption main body 2 may be a fan, a lamp, a mobile phone, a flat board, etc., for example, the fan, the lamp is fixedly or movably mounted on the support rod 3, for example, the mobile phone, the flat board may be clamped by a clamp 5, and the clamp 5 is fixedly or movably mounted on the support rod 3.

Illustratively, the multi-foot stand further comprises a remote control 8, wherein one of the feet 1 is provided with a remote control mounting groove 1002, the remote control 8 mounting groove is adapted to the remote control 8, the remote control 8 is embedded in the remote control mounting groove 1002, for example, wherein one of the telescoping feet 1a is provided with a remote control mounting groove 1002, and the first support 100 of the telescoping foot 1a is provided with a remote control mounting groove 1002.

An embodiment of the present utility model provides a photographing bracket, including a photographing terminal 2 and a multi-leg bracket, where a supporting rod 3 of the multi-leg bracket is used to support the photographing terminal 2, and the photographing terminal 2 may be a mobile phone, a tablet, a camera, etc.

For example, the photographing bracket further includes a clamp 5, the clamp 5 is mounted on the support rod 3, and the clamp 5 is used for clamping the photographing terminal 2 (or the power consumption main body 2) such as a mobile phone, a tablet.

For example, the support rod 3 has a first mounting interface, which may be a screw thread, a screw thread post, a shoe head, or the like, and accordingly, the photographing terminal 2 (or the electricity consumption body 2) has a second mounting interface, which may be a screw thread post, a shoe head, or the like, and the photographing terminal 2 (or the electricity consumption body 2) is mounted to the support rod 3 through cooperation of the first mounting interface, the second mounting structure.

For example, the photographing bracket is used for supporting an electronic terminal such as a mobile phone, a tablet, a camera, etc., and may be a handheld photographing bracket when the multi-leg bracket is folded on the support bar 3. The photographing support may be a vehicle photographing support, a desktop photographing support, a ground photographing support, etc. when the multi-foot support is opened.

Illustratively, at least one foot 1 is fixedly mounted to the support bar 3, e.g., at least one telescoping foot 1a is fixedly mounted to the support bar 3, e.g., the first support 100 or the second support 200 of telescoping foot 1a is fixedly mounted to the support bar 3.

Illustratively, at least three legs 1 are each fixedly mounted to the support bar 3, the at least three legs 1 being radially openable relative to the support bar 3. For example, all the supporting legs 1 are telescopic supporting legs 1a, at least three telescopic supporting legs 1a are fixedly mounted on the supporting rod 3, and at least three telescopic supporting legs 1a can be radially opened relative to the supporting rod 3.

Illustratively, the angle of the at least one leg 1 with respect to the support bar 3 may vary, in particular the at least one leg 1 is rotatable with respect to the support bar 3, more in particular the at least one leg 1 is directly or indirectly rotatably connected to the support bar 3. In order to make the foot 1 act as a support, the foot 1 is connected with the support rod 3 in a damping rotation manner; or the support bar 3 is provided with a supporting part, and the support bar 1 can support the supporting part of the support bar 3 when the support bar 1 is in a supporting state.

Illustratively, the angle between the at least one telescoping leg 1a with respect to the support bar 3 may vary, in particular, the at least one telescoping leg 1a may be rotatable with respect to the support bar 3, more in particular, the at least one telescoping leg 1a may be directly or indirectly rotatably connected to the support bar 3, such as the first support 100 or the second support 200 of the telescoping leg 1a may be directly or indirectly rotatably connected to the support bar 3.

Illustratively, at least one leg 1 is receivable or openable relative to the support bar 3.

Illustratively, at least one telescoping leg 1a is receivable or openable relative to the support bar 3. For example, after the second support 200 of the telescopic leg 1a is received in the first support 100 of the telescopic leg 1a, the telescopic leg 1a may be received in the support bar 3; for another example, the telescopic leg 1a may be received in the support bar 3 before the second support 200 is received in the first support 100.

Illustratively, at least three legs 1 may each be received or opened by a support bar 3. When the at least three legs 1 support the support bar 3, the at least three legs 1 are opened radially with respect to the support bar 3; for example, at least three legs 1 are movably mounted on the support bar 3, and when the multi-leg support is not in use, the at least three legs 1 can be folded with each other, or the at least three legs 1 are stored in the support bar 3. For example, after at least three legs 1 are received in the support bar 3 and the first support 100 is received in the second support 200, the at least three legs 1 may form a first columnar structure. The first columnar structure may be a cylinder, an elliptic cylinder, a prism, or a rounded prism.

Illustratively, the first columnar structure is grippable by a user for use of the power consuming body 2 in a gripping state, such as self-timer shooting in a gripping state, or the like.

Illustratively, each of the at least three legs 1 is a telescopic leg 1a, and after the at least three legs 1 are received in the support bar 3 and the second support 200 is received in the first support 100, the at least three telescopic legs 1a may form a first columnar structure. For example, the cross section of the first support 100 is in an arcuate shape or a fan-shaped shape, and when the at least three telescopic legs 1a are folded, the first support 100 of the at least three telescopic legs 1a is folded to form a first columnar structure having a columnar shape.

Illustratively, at least three of the legs 1 are telescoping legs 1a, and at least three telescoping legs 1a may be received in the support bar 3 before the second support 200 is received in the first support 100.

Illustratively, the first columnar structure is a cylinder; the support rod 3 is a telescopic rod.

For example, at least three legs 1 may exhibit an equal length state, or at least two legs 1 of at least three legs 1 may exhibit an equal length state, or at least three legs 1 may exhibit equal lengths between two legs 1.

Illustratively, at least three of the legs 1 may be opened at equal angles with respect to the support bar 3, or at least two of the legs 1 may be opened at equal angles with respect to the support bar 3, or any two of the legs 1 may be at different angles with respect to the support bar 3.

For example, if the support surface 1001 is a plane, the support bar 3 is perpendicular to the support surface 1001 or the support bar 3 is non-perpendicular to the support surface 1001 when the tripod is in the support state.

Illustratively, the support bar 3 is along the plumb line, or the support bar 3 is inclined relative to the plumb line, when the multi-foot stand is in a supported state.

Illustratively, at least 1 of the at least three legs 1 is a telescoping leg 1a, and the remaining legs 1 are fixed length legs 1.

Illustratively, at least 2 of the at least three legs 1 are telescoping legs 1a, and the remaining legs 1 are fixed length legs 1.

Illustratively, all of the at least three legs 1 are telescoping legs 1a.

Illustratively, at least 1 of the at least three legs 1 is a fixed length leg 1, and the remaining legs 1 are telescoping legs 1a.

Illustratively, at least 2 of the at least three legs 1 are fixed length legs 1, and the remaining legs 1 are telescoping legs 1a.

Illustratively, the number of telescoping legs 1a is 1, 2, 3, 4, etc.

Illustratively, the number of fixed length feet 1 is 1, 2, 3, 4, etc.

Illustratively, at least three of the legs 1 are telescoping legs 1a. The advantage of this is that the length of the telescopic leg 1a is adjustable when the multi-legged support is in use, so that the support surface 1001 of the multi-legged support is changed, for example when the length of the support bar 3 is long or the weight of the power consuming body 23 is heavy, the length of the telescopic leg 1a can be adjusted, so that the support surface 1001 of the multi-legged support is increased. And the multi-leg support is convenient to adapt to inclined or uneven ground.

Illustratively, at least three of the legs 1 are telescoping legs 1a, and after the length of each of the at least three telescoping legs 1a is changed, the angle between the support bar 3 and the support surface 1001 is unchanged (e.g., the support bar 3 remains perpendicular to the support surface 1001, or remains non-perpendicular).

Illustratively, at least three of the legs 1 are telescoping legs 1a, and after at least three of the telescoping legs 1a have their lengths changed, the angle between the support bar 3 and the support surface 1001 changes.

Illustratively, at least three legs 1 are telescoping legs 1a, and after at least three legs 1 each have their length changed, the angle of the support bar 3 to the plumb line is constant (e.g., the support bar 3 is always along the plumb line, or has an angle with the undershot line).

Illustratively, at least three legs 1 are telescoping legs 1a, and after at least three legs 1 have their lengths changed, the angle of the support bar 3 with the plumb line changes.

The second supporting member 200 is sleeved on the first supporting member 100, and may be that the first supporting member 100 is fully wrapped around the second supporting member 200, or that the first supporting member 100 is partially wrapped around the second supporting member 200.

Illustratively, the second support 200 is fully wrapped, semi-wrapped, or partially wrapped by the first support 100.

In some implementations of the embodiments of the present utility model, referring to fig. 1, 33, and 49, the multi-foot stand further includes a first mounting portion 6 and at least one first link 7, the at least one first link 7 corresponds to the at least one telescopic leg 1a, respectively, and the first mounting portion 6 is slidably mounted to the support bar 3; one end of the first connecting rod 7 is rotationally connected with the first supporting piece 100 of the telescopic supporting leg 1a, and the other end is rotationally connected with the supporting rod 3; the first supporting piece 100 of the telescopic leg 1a is rotatably connected with the first mounting part 6; the angle between the telescopic leg 1a and the support bar 3 changes when the first mounting portion 6 slides along the support bar 3.

It will be appreciated that the first mounting portion 6, the first link 7, the support bar 3, and the first support 100 form a slider link structure.

Illustratively, the support rod 3 is sleeved on the first mounting portion 6.

Illustratively, the first mounting portion 6 is in a second cylindrical structure, e.g., the second cylindrical structure may be the same cross-section as the first cylindrical structure.

Illustratively, the first mount 6 is circumferentially fixed relative to the support bar 3.

It will be appreciated that the number of first links 7 is the same as the number of telescopic legs 1 a.

In some implementations of the embodiments of the present utility model, referring to fig. 22, 35, 40, 55, etc., the first support 100 is provided with a first receiving cavity 108, the telescopic leg 1a may be received in the support bar 3, and the first link 7 is received in the first receiving cavity 108 when the first support 100 of the telescopic leg 1a is received in the support bar 3.

For example, the telescopic leg 1a may be received in the support bar 3 may mean that the telescopic leg 1a may be received in the support bar 3 after the second support 200 is received in the first support 100.

For example, the telescopic leg 1a may be received in the support bar 3, and the telescopic leg 1a may be received in the support bar 3 in any length, for example, the telescopic leg 1a may be received in the support bar 3 in the longest state.

For example, the first link 7 is accommodated in the first accommodating chamber 108, and may refer to that a part of the first link 7 is accommodated in the first accommodating chamber 108, or may refer to that a main part of the first link 7 is accommodated in the first accommodating chamber 108, or may refer to that the first link 7 is entirely accommodated in the first accommodating chamber 108.

Illustratively, at least one of the legs 1 is a telescopic leg 1a, each leg 1 is received in the support bar 3, and when each leg 1 is received in the support bar 3, the plurality of legs 1 may form a first columnar structure, and a part or all of each leg 1 participates in forming the first columnar structure.

Illustratively, the outer side of the first columnar structure is a first columnar surface, and a part or all of each leg 1 participates in forming the first columnar surface, and adjacent sides of two adjacent legs 1 are aligned.

Illustratively, the leg 1 has opposite first and second sides 1003, 1004, the first and second sides 1003, 1004 extending along the extension direction of the leg 1, respectively, any adjacent two legs 1 being first and second legs 1, respectively, the first side 1003 of the first leg 1 being aligned with the second side 1004 of the second leg 1 when the plurality of legs 1 are all received in the support bar 3.

It will be appreciated that the first side 1003 is aligned with the second side 1004 may refer to the first side 1003 and the second side 1004 being adjacent to each other and located on the same resolution surface, e.g., the first side 1003 and the second side 1004 being located on the same cylindrical surface (e.g., a first cylindrical surface).

Illustratively, the first mounting portion 6 is of a second cylindrical structure, the cross-section of which is adapted to the first cylindrical structure.

In some implementations of embodiments of the utility model, referring to fig. 1-65, at least three of the legs 1 are telescoping legs 1a, and the at least three telescoping legs 1a form a first columnar structure when the at least three telescoping legs 1a are received in the support bar 3.

Illustratively, at least three telescoping legs 1a form a first columnar structure, with a portion or all of each telescoping leg 1a participating in forming the first columnar structure.

Illustratively, the first columnar structure may be cylindrical, polygonal columnar, elliptical columnar, or the like.

Illustratively, the outer side of the first columnar structure is a first columnar surface, and a part or all of each telescopic leg 1a participates in forming the first columnar surface, and adjacent outer sides of two adjacent telescopic legs 1a are aligned.

In some implementations of embodiments of the present utility model, referring to fig. 33, 39, 49, etc., at least three of the legs 1 are telescoping legs 1a, the telescoping legs 1a having a first side 1003 and a second side 1004, the first side 1003 and the second side 1004 being located on opposite sides of the telescoping legs 1a, respectively; any two adjacent telescopic legs 1a are a first telescopic leg 1a and a second telescopic leg 1a, respectively, and when at least three telescopic legs 1a are all received in the support bar 3, the first side 1003 of the first telescopic leg 1a is aligned with the second side 1004 of the second telescopic leg 1 a.

Illustratively, the first side 1003 is along the extension direction of the telescoping leg 1a and the second side 1004 is along the extension direction of the telescoping leg 1 a.

Illustratively, the first side 1003 and the second side 1004 are located on opposite sides of the first support 100, respectively.

It is understood that the first side 1003 is aligned with the second side 1004, which may mean that the first side 1003 and the second side 1004 are close to each other and located on the same resolution surface, for example, the first side 1003 and the second side 1004 are located on the same cylindrical surface (for example, a first cylindrical surface), and the resolution surface may also be a plane surface.

In some implementations of embodiments of the present utility model, referring to fig. 10, 33, 41-42, the second support 200 is configured to be supported on a support surface 1001 when the telescopic leg 1a is in a supported state, the first support 100 has opposite second side 107b and first side 107a when the telescopic leg 1a is in a supported state, the second side 107b is adjacent to the support surface 1001 relative to the first side 107a when the telescopic leg 1a is in a supported state, and the first mounting opening 102 is provided in the second side 107b of the first support 100; the telescopic leg 1a is receivable in the support bar 3, and when the telescopic leg 1a is received in the support bar 3, the second side 107b is adjacent to the support bar 3 relative to the first side 107 a.

The advantage of setting up like this is, when the multi-legged support is in storage state and braced state, this flexible stabilizer blade 1a stretches out and draws back more safely, avoids fish tail user's hand when stretching out and drawing back.

Referring to fig. 6, 46-48 and 58-60, the embodiment of the present utility model further proposes a telescopic leg 1a, wherein the telescopic leg 1a is used as one of the legs 1 of the multi-leg stand, the telescopic leg 1a comprises a first support member 100 and a second support member 200, the first support member 100 is provided with at least one first sliding groove 101, the second support member 200 comprises at least one strut 210, the at least one strut 210 corresponds to the at least one first sliding groove 101 respectively, and the strut 210 is slidably mounted in the corresponding first sliding groove 101 to change the length of the telescopic leg 1 a; the strut 210 may be positioned at the first support 100 when the telescopic leg 1a is in the supporting state; the strut 210 includes a rod portion 212 and a protrusion portion 211, and the protrusion portion 211 is protruded from the rod portion 212; the rod 212 has a first end, the first end of the rod 212 can extend from the first sliding groove 101, a first limiting wall 104 is disposed in the first sliding groove 101, the first limiting wall 104 is located between the protruding portion 211 and the first end of the rod 212, when the telescopic leg 1a extends to the longest state, the protruding portion 211 abuts against the first limiting wall 104, and during the extending process of the telescopic leg 1a, the first end of the rod 212 is gradually far away from the first supporting member 100.

The advantage of this arrangement is that when the multi-legged support is not in use, the strut 210 is slidable relative to the first sliding groove 101 such that the length of the telescopic leg 1a is shortened, thereby making the volume of the telescopic leg 1a smaller. And the supporting rod 210 is provided with a protruding part 211, the first limiting wall 104 is arranged in the first sliding groove 101, when the telescopic supporting leg 1a stretches to the longest state, the protruding part 211 is propped against the first limiting wall 104, and excessive stretching of the telescopic supporting leg 1a during stretching is avoided, so that the integrity of the telescopic supporting leg 1a during use is ensured.

Illustratively, when the telescoping leg 1a is in a supported state, the strut 210 is in direct or indirect contact with a support surface 1001.

Illustratively, the sliding fit of the rod portion 212 with the first sliding channel 101 enables the strut 210 to be slidably mounted to the first sliding channel 101.

Illustratively, the sliding fit of the boss 211 with the first sliding channel 101 enables the strut 210 to be slidably mounted to the first sliding channel 101.

Illustratively, the lever portion 212 and the protruding portion 211 are slidably engaged with the first sliding groove 101, so as to realize the sliding installation of the strut 210 in the first sliding groove 101.

Illustratively, the boss 211 is non-detachably disposed to the stem 212, e.g., the boss 211 is integrally disposed to the stem 212.

Illustratively, the boss 211 is removably disposed to the stem 212.

Illustratively, the boss 211 is located at one end of the stem 212, or the boss 211 is located elsewhere on the stem 212.

In some implementations of embodiments of the present utility model, referring to fig. 12, 46, and 58-60, the first sliding groove 101 includes a first sliding sub-groove 101a and a second sliding sub-groove 101b, the first sliding sub-groove 101a communicating with the second sliding sub-groove 101 b; the first sliding sub-groove 101a is fitted with the boss 211 of the strut 210, and the second sliding sub-groove 101b is fitted with the rod 212 of the strut 210.

The provision of the first sliding sub-groove 101a and the second sliding sub-groove 101b has the advantage of making the sliding of the strut 210 in the first sliding groove 101 smoother.

Other examples include the first sliding groove 101 only including the first sliding sub groove 101a.

Other examples include the first sliding groove 101 including only the second sliding sub groove 101b.

In some implementations of embodiments of the utility model, the first limiting wall 104 is located in the first sliding sub-groove 101a.

In some implementations of embodiments of the present utility model, referring to fig. 6, 48, 59, the first limiting wall 104 is located at the junction of the first sliding sub-groove 101a and the second sliding sub-groove 101 b.

Illustratively, the transition between the first sliding sub-groove 101a and the second sliding sub-groove 101b is a stepped structure, and the first limiting wall 104 is a part of the stepped structure.

In some implementations of embodiments of the present utility model, referring to fig. 6, 48, 59, a first projection plane is perpendicular to the extending direction of the first sliding groove 101, and a projection of the first sliding sub groove 101a on the first projection plane accommodates a projection of the second sliding sub groove 101b on the first projection plane.

In some implementations of embodiments of the present utility model, the first limiting wall 104 is curved or planar.

For example, the first limiting wall 104 may be a convex curved surface or a concave curved surface.

In some implementations of the embodiments of the present utility model, referring to fig. 6, 48, and 59, the first limiting wall 104 is a plane, and the first limiting wall 104 is perpendicular to the extending direction of the first sliding groove 101.

Other examples include that the first limiting wall 104 is a plane, and the first limiting wall 104 is not perpendicular to the extending direction of the first sliding groove 101.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46, etc., the first support 100 has a first positioning protrusion 110, the strut 210 has a second positioning protrusion 211a, the second positioning protrusion 211a may abut against or may slide over the first positioning protrusion 110 when the strut 210 slides with respect to the first sliding groove 101, and the strut 210 may be positioned at the second support 200 when the second positioning protrusion 211a abuts against the first positioning protrusion 110, when the telescopic leg 1a is in a supported state.

In some implementations of embodiments of the utility model, the second positioning protrusion 211a is a protrusion 211.

Illustratively, the second locating projection 211a is a portion or all of the projection 211.

In some implementations of embodiments of the present utility model, referring to fig. 22, 38, etc., the second support 200 is supported on a support surface 1001 when the telescoping leg 1a is in a supported state.

Referring to fig. 1-48, the embodiment of the present utility model further proposes a telescopic leg 1a, wherein the telescopic leg 1a is used as one of the legs 1 of the multi-leg stand, the telescopic leg 1a comprises a first support member 100 and a second support member 200, the first support member 100 is provided with at least one first sliding groove 101 and at least one first mounting opening 102, the at least one first mounting opening 102 corresponds to the at least one first sliding groove 101 respectively, the first mounting opening 102 communicates with the corresponding first sliding groove 101, the second support member 200 comprises at least one strut 210 and a pad leg 220, the at least one strut 210 corresponds to the at least one first sliding groove 101 respectively, the first end of the strut 210 is insertable into the corresponding first sliding groove 101 through the corresponding first mounting opening 102 so that the strut 210 is slidably mounted in the first sliding groove 101, the strut 210 is slidably mounted in the corresponding first sliding groove 101 so as to change the length of the telescopic leg 1a, and the first end of the strut 210 is extendable from the first sliding groove 101 so that the strut 210 is screwed into the pad leg 220; during extension of the telescoping leg 1a, the first end of the strut 210 gradually moves away from the first support 100. The strut 210 is provided with a first adjusting part 211b, the first adjusting part 211b is configured to be matched with an adjusting piece, the adjusting piece is provided with a second adjusting part matched with the first adjusting part 211b, the adjusting piece can be matched with the adjusting part through the first mounting opening 102 and rotate, and the adjusting piece can drive the strut 210 to rotate when rotating so as to fasten or unfasten the strut 210 and the foot pad 220; when the telescopic leg 1a is in the supporting state, the foot pad 220 is supported on a supporting surface 1001, and the strut 210 can be positioned on the first supporting member 100.

The above arrangement has the advantage that the strut 210 is slidable with respect to the first sliding groove 101 so that the length of the telescopic leg 1a becomes short, thereby making the volume of the telescopic leg 1a small, when the multi-legged stand is not used. In addition, the support rod 210 is screwed with the pad 220, the support rod 210 is provided with a first adjusting part 211b, and the support rod 210 can be conveniently mounted on the pad 220 through an adjusting piece.

It will be appreciated that the first mounting opening 102 may be any shape that facilitates insertion into the first sliding channel 101.

The screw-in connection may be a threaded connection or a non-threaded connection, for example. For example, the rod portion 212 is provided with a protruding block, the pad leg 220 is provided with a mounting hole matched with the rod portion 212, the hole wall of the mounting hole is provided with a non-spiral rotary groove, the protruding block is matched with the rotary groove, and the rod portion 212 can be screwed into the pad leg 220 by rotating the rod portion 212. The bump and the spin groove may be in line contact or point contact.

Illustratively, the shaft 212 is provided with a mounting hole, the hole wall of which is provided with a non-spiral spin groove, the pad 220 is provided with a mounting post matched with the mounting hole, the mounting post is provided with a projection matched with the spin groove, and the mounting post can be screwed into the spin groove.

In some implementations of embodiments of the present utility model, referring to fig. 6 or 46, the first adjustment portion 211b is a first adjustment groove 211b and the second adjustment portion is a second adjustment protrusion.

Illustratively, the first adjustment groove 211b may be a groove of constant cross section, and the first adjustment groove 211b may be a protrusion of variable cross section.

The second adjustment protrusion may be a protrusion of constant cross section, and the second adjustment protrusion may be a protrusion of variable cross section, for example.

Illustratively, the first adjustment groove 211b may be a columnar groove, a mesa groove, a tapered groove, etc., and the second adjustment protrusion may be a columnar protrusion, a mesa protrusion, a tapered protrusion, etc.

Illustratively, the first adjustment groove 211b is a plum blossom groove, the second adjustment protrusion is a plum blossom protrusion,

Illustratively, the first adjustment slot 211b is a straight slot and the second adjustment projection is a straight projection;

illustratively, the first adjustment groove 211b is a cross groove and the second adjustment protrusion is a cross protrusion;

Illustratively, the first adjustment groove 211b is a polygonal groove and the second adjustment protrusion is a polygonal protrusion;

Illustratively, the first adjustment groove 211b is a semicircular groove and the second adjustment protrusion is a semicircular protrusion;

Illustratively, the first adjustment groove 211b is an elliptical groove and the second adjustment protrusion is an elliptical protrusion.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46, etc., the first adjustment groove 211b is a columnar groove, and the second adjustment protrusion is a columnar protrusion; or the first adjusting groove 211b is a table-shaped groove, and the second adjusting protrusion is a table-shaped protrusion; or the first adjusting groove 211b is a tapered groove, and the second adjusting protrusion is a tapered protrusion.

It will be appreciated that the second adjustment projection is insertable into the first adjustment slot 211b in a first insertion direction, the cross-section of the first adjustment slot 211b being constant or varying in the first insertion direction, and the cross-section of the second adjustment projection being constant or varying in the first insertion direction.

In some implementations of embodiments of the present utility model, the first adjustment portion 211b is a first adjustment protrusion 211b and the second adjustment portion is a second adjustment groove.

For example, the first adjustment protrusion 211b may be a protrusion of a uniform cross section, and the first adjustment protrusion 211b may be a protrusion of a variable cross section.

The second adjustment groove may be a constant-section protrusion, and the second adjustment groove may be a variable-section protrusion.

In some implementations of the embodiments of the present utility model, the first adjustment protrusion 211b is a quincuncial protrusion, the second adjustment groove is a quincuncial groove, or the first adjustment protrusion 211b is a straight protrusion, and the second adjustment groove is a straight groove; or the first adjusting protrusion 211b is a cross protrusion, and the second adjusting groove is a cross groove; or the first adjusting protrusion 211b is a polygonal protrusion, and the second adjusting groove is a polygonal groove; or the first adjusting protrusion 211b is a semicircular protrusion, and the second adjusting groove is a semicircular groove; or the first adjustment protrusion 211b is an elliptical protrusion and the second adjustment groove is an elliptical groove.

In some implementations of the embodiments of the present utility model, the first adjustment protrusion 211b is a columnar protrusion, and the second adjustment groove is a columnar groove; or the first adjusting protrusion 211b is a table-shaped protrusion, and the second adjusting groove is a table-shaped groove; or the first adjusting protrusion 211b is a tapered protrusion, and the second adjusting groove is a tapered groove.

It will be appreciated that the first adjustment projection 211b is insertable into the second adjustment slot in a second insertion direction, the first insertion direction being the opposite of the second insertion direction, the cross section of the first adjustment projection 211b being variable or constant in the second insertion direction, and the cross section of the second adjustment slot being variable or constant in the second insertion direction.

In some implementations of the embodiments of the present utility model, referring to fig. 14, the pad 220 is provided with a first threaded hole 203, and an end of the strut 210 near the pad 220 is provided with an external thread 215, and the external thread 215 is matched with the first threaded hole 203;

As another example, referring to fig. 15, the foot 220 is provided with a first threaded post 225, the post 210 is provided with a second threaded hole 204, and the first threaded post 225 mates with the second threaded hole 204.

It will be appreciated that the post 210 may be threaded into the first threaded bore 203 or the first threaded post 225 may be threaded into the second threaded bore 204.

In some implementations of the embodiments of the present utility model, referring to fig. 4, 5, etc., the first support 100 is provided with a first clamping portion 120, and the pad 220 is provided with a second clamping portion 223; when the telescopic support leg 1a is contracted to the shortest state, the first clamping part 120 is clamped to the second clamping part 223; the first support 100 has a first proximal edge 106a and the foot pad 220 has a second proximal edge 202a, the first proximal edge 106a being aligned with the second proximal edge 202a when the telescoping leg 1a is telescoping to the shortest position. The first proximity edge 106a being aligned with the second proximity edge 202a may refer to the first proximity edge 106a being adjacent to each other and on the same resolution surface, e.g., the first proximity edge 106a and the second proximity edge 202a being on the same plane or the same cylinder, etc.

As another example, referring to fig. 33, 39, 49, etc., the first support 100 has a first outer side 106, and the foot pad 220 has a second outer side 202, and when the telescoping leg 1a is telescoping to the shortest state, the first outer side 106 is aligned with the second outer side 202. The first outer side 106 is close to and located on the same resolution surface as the second outer side 202, for example, the first outer side 106 and the second outer side 202 are located on the same plane or the same cylindrical surface.

Illustratively, the first exterior side 106 of the first support 100 is located at the first side 107a of the first support.

Illustratively, the first exterior side 106 is a first side 107a.

Illustratively, the first exterior side 106 partially coincides with the first side 107 a.

As another example, referring to fig. 33, 39, 49, etc., the first support 100 has a first end surface 109, the pad 220 has a second end surface 205, the first end surface 109 is adapted to the second end surface 205, and when the telescopic leg 1a is telescopic to the shortest state, the first end surface 109 is attached to or approaches the second end surface 205. It is understood that the first end surface 109 being adapted to the second end surface 205 means that the first end surface 109 is identical in shape and opposite to the second end surface 205.

It can be appreciated that the second limiting wall 201 is located on the second end surface 205 of the pad 220.

In some implementations of the embodiments of the present utility model, referring to fig. 1-48, the strut 210 includes a rod portion 212 and a protruding portion 211, the protruding portion 211 is protruding on the rod portion 212, the rod portion 212 is screwed with the pad 220, and the first adjusting portion 211b is provided on the protruding portion 211; the first sliding groove 101 is provided with a first limiting wall 104, and the protruding part 211 is configured to abut against the first limiting wall 104 when the telescopic support leg 1a extends to the longest state; the first support 100 has a first positioning protrusion 110, and when the strut 210 slides relative to the first sliding groove 101, the protrusion 211 abuts against or slides over the first positioning protrusion 110, and the protrusion 211 abuts against the first positioning protrusion 110 so that the strut 210 is positioned on the first support 100 when the telescopic leg 1a is in the supporting state.

In some implementations of the embodiments of the present utility model, the first support 100 has a second side 107b and a first side 107a opposite to each other, the second side 107b being closer to the support surface 1001 than the first side 107a when the telescopic leg 1a is in the support state, and the first mounting opening 102 is provided in the second side 107b of the first support 100.

Referring to fig. 1-48, the embodiment of the present utility model further proposes a telescopic leg 1a, wherein the telescopic leg 1a is used as one of the legs 1 of the multi-leg stand, the telescopic leg 1a comprises a first support 100 and a second support 200, the first support 100 is provided with at least one first sliding groove 101, the second support 200 comprises at least one strut 210, the at least one strut 210 corresponds to the at least one first sliding groove 101 respectively, and the strut 210 is slidably mounted in the corresponding first sliding groove 101 to change the length of the telescopic leg 1 a; the strut 210 includes a rod portion 212 and a second positioning protrusion 211a, where the second positioning protrusion 211a is protruding from the rod portion 212; the first support 100 has a first positioning protrusion 110, and the second positioning protrusion 211a may abut against or slide over the first positioning protrusion 110 when the strut 210 slides with respect to the first sliding groove 101, and the second positioning protrusion 211a abuts against the first positioning protrusion 110 when the telescopic leg 1a is in the supporting state so that the strut 210 is positioned at the second support 200.

The advantage of this arrangement is that when the multi-legged support is not in use, the strut 210 is slidable relative to the first sliding groove 101 such that the length of the telescopic leg 1a is shortened, thereby making the volume of the telescopic leg 1a smaller. The first supporting member 100 is provided with a first positioning protrusion 110, the supporting rod 210 is provided with a second positioning protrusion 211a, and when the second positioning protrusion 211a abuts against the first positioning protrusion 110, a supporting force is provided for the supporting rod 210 to abut against the first supporting member 100, so that the supporting rod 210 can be positioned on the first supporting member 100 in the supporting state of the telescopic supporting leg 1 a. And the second positioning protrusion 211a can slide over the first positioning protrusion 110 without affecting the extension and retraction of the extension and retraction foot 1 a.

As an example, the sliding of the second positioning protrusion 211a over the first positioning protrusion 110 may mean that the telescopic leg 1a is in a supporting state, and in a state in which the second positioning protrusion 211a is abutted against the first positioning protrusion 110, when the pressure applied to the telescopic leg 1a is sufficiently large, the second positioning protrusion 211a slides over the first positioning protrusion 110, so that the strut 210 may be received in the first supporter 100.

As an example, the sliding of the second positioning protrusion 211a over the first positioning protrusion 110 may also mean that the telescopic leg 1a is in the shortest state (or other state), the first positioning protrusion 110 does not abut against the second positioning protrusion 211a, when the telescopic leg 1a is subjected to a sufficiently large tensile force, the strut 210 protrudes with respect to the first support 100, the second positioning protrusion 211a slides over the first positioning protrusion 110, and after the second positioning protrusion 211a slides over the first positioning protrusion 110, the second positioning protrusion 211a may abut against the first positioning protrusion 110 to realize that the strut 210 is positioned at the first support 100 in the supported state.

It will be appreciated that the abutment of the second positioning protrusion 211a against the first positioning protrusion 110 may enable the telescopic leg 1a to position the strut 210 to the first support 100 at a specific length.

Illustratively, during the sliding of the second positioning protrusion 211a over the first positioning protrusion 110, the second positioning protrusion 211a is deformed, and/or the first positioning protrusion 110 is deformed, such that the second positioning protrusion 211a may slide over the first positioning protrusion 110. The deformation of the second positioning protrusion 211a may mean that the second positioning protrusion 211a itself is deformed, or that a part carrying the second positioning protrusion 211a is deformed; the deformation of the first positioning protrusion 110 may mean that the first positioning protrusion 110 itself is deformed, or that a member carrying the first positioning protrusion 110 is deformed.

Illustratively, the second locating projection 211a is a boss 211.

Illustratively, the second positioning protrusion 211a has two opposite second sidewalls, from the bottom end of the second positioning protrusion 211a to the top end thereof, the distance between the two second sidewalls is narrowed, and the first positioning protrusion 110 is in sliding contact with the second sidewall of the second positioning protrusion 211a and the first positioning protrusion 110 is in sliding contact with the top end of the second positioning protrusion 211a during the sliding of the second positioning protrusion 211a over the first positioning protrusion 110.

Illustratively, the second sidewall transitions gradually with the top end of the second positioning protrusion 211a, for example, the second sidewall transitions with the top end of the second positioning protrusion 211a with a smooth curved surface, and for example, the second sidewall transitions with the top end of the second positioning protrusion 211a with an inclined surface.

In some implementations of the embodiments of the present utility model, the second support 200 is supported on a support surface 1001 when the telescoping leg 1a is in a supported state.

Illustratively, the support surface 1001 may be planar, curved, or the like.

Illustratively, the support surface 1001 may be a table top, a floor, or the like.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46, etc., the first positioning protrusion 110 has two opposite first sidewalls 111, and the interval between the two first sidewalls 111 is narrowed from the bottom end of the first positioning protrusion 110 to the top end thereof.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46, etc., the top ends of the first sidewall 111 and the first positioning protrusion 110 are gradually transited.

In some implementations of embodiments of the present utility model, referring to fig. 6, 46, etc., the first support 100 has at least one first escape space 1010, the at least first escape spaces 1010 respectively corresponding to the at least one first sliding groove 101, the first escape spaces 1010 being configured to serve as deformation spaces for the struts 210 when the second positioning protrusions 211a slide over the first positioning protrusions 110.

It can be appreciated that when the second positioning protrusion 211a slides over the first positioning protrusion 110, the strut 210 undergoes a minute deformation.

For example, the first escape space 1010 may be the first mounting opening 102.

In some implementations of embodiments of the utility model, referring to fig. 46-48, the first sliding channel 101 includes a second sliding sub-channel 101b, the second sliding sub-channel 101b being adapted to the stem 212 of the strut 210; the second sliding sub groove 101b surrounds the rod portion 212; the first section is perpendicular to the telescopic direction of the telescopic support leg 1a, the first avoidance space 1010 and the second sliding sub-groove 101b are respectively positioned on two opposite sides of the first section, the first avoidance space 1010 extends to the first section, and the second sliding sub-groove 101b extends to the first section; the second section is perpendicular to the telescopic direction of the telescopic support leg 1a, the second positioning protrusion 211a and the second sliding sub groove 101b are respectively positioned at two opposite sides of the second section, and the second positioning protrusion 211a extends to the second section; the lever portion 212 has a bending thickness in a thickness direction of the first positioning protrusion 110, a maximum thickness of the first positioning protrusion 110 is 5% -15% of the bending thickness of the lever portion 212, and a distance from the first section to the second section when the second positioning protrusion 211a slides over the first positioning protrusion 110 is equal to or greater than one time of the bending thickness of the lever portion 212; or the maximum thickness of the first positioning protrusion 110 is 5% -15% of the average diameter of the rod portion 212, and the distance from the first section to the second section when the second positioning protrusion 211a slides over the first positioning protrusion 110 is equal to or greater than one time the average diameter of the rod portion 212.

The above arrangement has the advantage that the bending deformation of the supporting rod 210 is facilitated when the second positioning protrusion 211a slides over the first positioning protrusion 110.

It will be appreciated that the degree of bending of the strut 210 is related to the thickness of the first positioning protrusion 110, and the thicker the first positioning protrusion 110, the greater the degree of bending of the strut 210.

It will be appreciated that the ease of bending the strut 210 is related to the thickness of the first positioning boss 110 and the length of the exposed action of the stem 212.

It is understood that the first escape space 1010 extends to the first cross section means that one end (or edge) of the first escape space 1010 is attached to the first cross section, and the first escape space 1010 is located at one side of the first cross section.

It is understood that the second positioning protrusion 211a extends to the second cross section means that one end (or edge) of the second positioning protrusion 211a is attached to the second cross section, and the second positioning protrusion 211a is located at one side of the second cross section.

It will be appreciated that the distance from the first cross section to the second cross section when the second positioning protrusion 211a slides over the first positioning protrusion 110 serves to characterize the length of the rod portion 212 exposed and acting as a bend relative to the second sliding sub-groove 101 b.

It is understood that the bent thickness of the lever portion 212 is the thickness in the thickness direction of the first positioning boss 110.

Illustratively, the maximum thickness of the first locating projection 110 is 5%, 8%, 10%, 12%, 15%, etc., of the bent thickness (or average diameter) of the stem 212.

As can be appreciated, the average diameter d=2×sqrt (S/pi) of the stem 212.

As can be appreciated, the maximum thickness of the first positioning protrusion 110 is the maximum distance from the outer wall of the first positioning protrusion 110 to the inner wall of the first sliding groove 101.

It can be understood that when the rod 212 is cylindrical, the bent thickness of the rod 212 is the diameter thereof, when the rod 212 is sheet-shaped and the thickness direction of the rod 212 coincides with the thickness direction of the first positioning protrusion 110, the bent thickness of the rod 212 is the thickness itself, and when the rod 212 is of an arbitrary shape, the bent thickness of the rod 212 should be understood as the thickness in the thickness direction of the first positioning protrusion 110.

Illustratively, the distance from the second cross-section to the first cross-section is greater than or equal to 1-2 times the bend thickness (or average diameter) of the stem 212.

Illustratively, the first sliding groove 101 includes only the second sliding sub-groove 101b, and the first support 100 is further provided with a space for the second positioning protrusion 211a (or the protrusion 211) to slide.

In some implementations of embodiments of the utility model, referring to fig. 46-48, the maximum thickness of the first positioning protrusion 110 is 5%, 8%, 10%, 12%, 15% of the bent thickness (or average diameter) of the stem 212;

The distance from the second section to the first section when the second positioning protrusion 211a slides over the first positioning protrusion 110 is 2 times or more the bending thickness (or average diameter) of the rod portion 212.

Illustratively, the second cross-section is 1 times, 1.2 times, 1.5 times, 1.7 times, 2 times, 3 times, 5 times, 10 times, etc. the bent thickness (or average diameter) of the stem 212 when the second positioning protrusion 211a slides over the first positioning protrusion 110.

In some implementations of embodiments of the utility model, referring to fig. 46-48, the second sliding sub-groove 101b is adapted with the stem 212 of the strut 210; the second sliding sub groove 101b surrounds the rod portion 212; the first section is perpendicular to the telescopic direction of the telescopic support leg 1a, the first avoidance space 1010 and the second sliding sub-groove 101b are respectively positioned on two opposite sides of the first section, the first avoidance space 1010 extends to the first section, and the second sliding sub-groove 101b extends to the first section; a third section is perpendicular to the telescoping direction of the telescoping leg 1a, the first positioning protrusion 110 extends to the third section, and the first positioning protrusion 110 and the second sliding sub-groove 101b are respectively located at two opposite sides of the third section; the maximum thickness of the first positioning protrusion 110 is 5% -15% of the average diameter of the shaft portion 212, and the distance from the first section to the third section is equal to or greater than one time of the average diameter of the shaft portion 212; or the rod 212 has a bending thickness along the thickness direction of the first positioning protrusion 110, the maximum thickness of the first positioning protrusion 110 is 5% -15% of the bending thickness of the rod 212, and the distance from the first section to the third section is greater than or equal to one time of the bending thickness of the rod 212.

It is understood that the space between the first section and the first positioning protrusion 110 is a transition space communicating the first sliding sub groove 101a and the second sliding sub groove 101 b.

When the rod 212 is cylindrical, the bent thickness of the rod 212 is the diameter thereof.

When the lever 212 is in the form of a sheet, the thickness direction of the lever 212 coincides with the thickness direction of the first positioning protrusion 110, and the bending thickness of the lever 212 is the thickness itself.

When the lever 212 is of an arbitrary shape, the bent thickness of the lever 212 should be understood as a thickness in the thickness direction of the first positioning protrusion 110.

It will be appreciated that the distance from the third section to the first section is used to characterize the distance from the first positioning protrusion 110 to the end of the second sliding sub-groove 101b, and that the greater the distance from the third section to the first section, the longer the exposed active length of the stem 212, and the easier the stem 212 will bend.

Illustratively, the maximum thickness of the first locating projection 110 is 5%, 8%, 10%, 12%, 15% of the folded thickness (or average diameter) of the stem 212.

Illustratively, the distance from the first cross-section to the third cross-section is 1-2 times or more than the folded thickness (or average diameter) of the stem 212.

Illustratively, the distance from the first cross-section to the third cross-section is greater than or equal to 2 times the bend thickness (or average diameter) of the stem 212.

Illustratively, the third cross-section is 1, 1.2, 1.5, 1.7, 2, 3, 5, 10, etc. times the bent thickness (or average diameter) of the stem 212 from the first cross-section.

In some implementations of embodiments of the present utility model, referring to fig. 46-48, the maximum thickness of the first positioning protrusion 110 is 5%, 8%, 10%, 12%, 15% of the bending thickness of the stem 212; the distance from the third section to the first section is 2 times or more the bending thickness of the shaft portion 212.

In some implementations of embodiments of the utility model, referring to fig. 46-48, the second sliding sub-groove 101b is adapted with the stem 212 of the strut 210; the second sliding sub groove 101b surrounds the rod portion 212; the first section is perpendicular to the telescopic direction of the telescopic support leg 1a, the first avoidance space 1010 and the second sliding sub-groove 101b are respectively positioned on two opposite sides of the first section, the first avoidance space 1010 extends to the first section, and the second sliding sub-groove 101b extends to the first section; a third section is perpendicular to the telescoping direction of the telescoping leg 1a, the first positioning protrusion 110 extends to the third section, and the first positioning protrusion 110 and the second sliding sub-groove 101b are respectively located at two opposite sides of the third section; the maximum thickness of the first positioning protrusion 110 is 5% -15% of the average diameter of the shaft 212, and the distance from the first section to the third section is equal to or greater than one time of the average diameter of the shaft 212.

In some implementations of embodiments of the utility model, the maximum thickness of the first positioning protrusion 110 is 5%, 8%, 10%, 12%, 15% of the average diameter of the stem 212.

Illustratively, the distance from the first cross-section to the third cross-section is greater than or equal to 2 times the average diameter of the stem 212.

Illustratively, the shaft 212 is cylindrical, and the average diameter of the shaft 212 is the diameter of the shaft 212.

In some implementations of the embodiments of the present utility model, referring to fig. 6, 46, etc., a first limiting wall 104 is provided in the first sliding groove 101, the first limiting wall 104 is located outside the second sliding sub-groove 101b, and the first limiting wall 104 is configured to abut against the second positioning protrusion 211a when the telescopic leg 1a is longest; between the first limiting wall 104 and the first positioning protrusion 110 is a clamping space 105 adapted to the second positioning protrusion 211a, and the clamping space 105 is used for clamping the second positioning protrusion 211a.

This has the advantage that the second positioning protrusion 211a is just locked in the locking space 105 after sliding over the first positioning protrusion 110, so that the support bar 210 is prevented from loosening or sliding relative to the first support member 100 after the user lifts the multi-foot stand in the supporting state.

It is understood that the width of the holding space 105 is adapted to the second positioning protrusion 211 a.

In some implementations of the embodiment of the present utility model, referring to fig. 46 to 48, a first protruding strip 150 is disposed in the first sliding groove 101, one end of the first protruding strip 150 is provided with a first limiting wall 104, the other end extends to one end of the second sliding sub-groove 101b, the first limiting wall 104 is a plane, and the first limiting wall 104 is perpendicular to the extending direction of the first sliding groove 101.

The advantage of this arrangement is that the first limiting wall 104 is disposed on the first protruding strip 150, and the first protruding strip 150 extends to the second sliding sub-slot 101b, so that the second positioning protrusion 211a is not easy to slide over the first limiting wall 104. Further avoiding loosening or sliding of the post 210 relative to the first support 100 when the user lifts the multi-legged support while in the support state.

Other examples include the first limiting wall 104 being non-perpendicular to the extending direction of the first sliding groove 101.

In some implementations of embodiments of the present utility model, referring to fig. 6, 48, etc., a first limiting wall 104 is provided in the first sliding groove 101, the first limiting wall 104 being configured to abut against the second positioning protrusion 211a when the telescopic leg 1a is longest; between the first limiting wall 104 and the first positioning protrusion 110 is a clamping space 105 adapted to the second positioning protrusion 211a, and the clamping space 105 is used for clamping the second positioning protrusion 211a.

The advantage of this arrangement is that the telescopic leg 1a is located exactly in the holding space 105 when it is longest, avoiding telescopic sliding of the telescopic leg 1a when the telescopic leg 1a is lifted.

In some implementations of embodiments of the utility model, referring to fig. 46-48, the first sliding channel includes a second sliding sub-channel that fits with the stem portion of the strut; the second sliding sub-groove surrounds the rod portion; the first section is perpendicular to the telescopic direction of the telescopic support leg, the first avoidance space and the second sliding sub-groove are respectively positioned on two opposite sides of the first section, and the second sliding sub-groove extends to the first section; a first pole segment from the second locating projection to the first section being the pole; the first pole segment is exposed from the second sliding sub-slot when the second locating projection passes the first locating projection. This has the advantage that the lever 212 is exposed with respect to the second sliding sub groove 101b when the second positioning protrusion 211a passes the first positioning protrusion 110, so that the lever 212 is easily bent and deformed.

It will be appreciated that when the second locating projection passes the first locating projection, the length of the first pole segment is greater than 2 times the folded thickness of the pole portion, or twice the average diameter of the pole portion.

It is understood that the first pole segment is a pole segment with a pole portion from a first cross section to a second cross section.

In some implementations of the embodiments of the present utility model, referring to fig. 48, when the second positioning protrusion 211a is located in the holding space 105, the first rod section of the rod 212 is exposed with respect to the second sliding sub-groove 101b, which has the advantage that when the second positioning protrusion 211a passes the first positioning protrusion 110, the rod 212 is exposed with respect to the second sliding sub-groove 101b, so that the rod 212 is easily bent and deformed.

In some implementations of the embodiments of the present utility model, when the second positioning protrusion passes the first positioning protrusion, the lever portion is exposed for a preset length with respect to the second sliding sub-groove, so that the lever portion is easy to bend and deform.

The embodiment of the utility model also provides a multi-foot bracket, which comprises a supporting rod 3 and at least three supporting feet 1, wherein the at least three supporting feet 1 are used for supporting the supporting rod 3; the telescopic leg 1a is provided in each of the at least three legs 1.

Referring to fig. 1 to 65, the embodiment of the present utility model further proposes a multi-foot support 1 including a support bar 3, at least three feet 1, a first mounting portion 6 and at least one first link 7, the at least three feet 1 for supporting the support bar 3, the support bar 3 for supporting an electricity-consuming body 2, at least one of the at least three feet 1 being a telescopic foot 1a, the telescopic foot 1a including a first support 100 and a second support 200, the first support 100 being provided with at least one first sliding groove 101, the second support 200 including at least one strut 210, the at least one strut 210 corresponding to the at least one first sliding groove 101, respectively, the strut 210 being slidably mounted in the first sliding groove 101, the strut 210 being slidable with respect to the first support 100 to vary the length of the telescopic foot 1a, the strut 210 being configured to be positionable in the first support 100 when the telescopic foot 1a is in a supported state; at least one first connecting rod 7 corresponds to at least one telescopic supporting leg 1a respectively, the first installation part 6 is slidably installed on the supporting rod 3, one end of the first connecting rod 7 is rotatably connected with the first supporting piece 100 of the telescopic supporting leg 1a, and the other end of the first connecting rod is rotatably connected with the supporting rod 3; the first supporting member 100 is rotatably connected to the first mounting portion 6; when the first mounting part 6 slides along the telescopic rod, the included angle between the telescopic support leg 1a and the support rod 3 is changed; the first support 100 is provided with a first receiving cavity 108, the telescopic leg 1a being receivable in the support bar 3, the first receiving cavity 108 being configured to receive the first link 7 when the first support 100 is received in the support bar 3; at least 1 of the at least one first sliding groove 101 is a close-type first sliding groove 101; the first receiving chamber 108 is adjacent to the close-type first sliding groove 101.

The advantage of the above arrangement is that one of the legs 1 is a telescopic leg 1a, and when the multi-leg stand is not in use, the strut 210 is slidable relative to the first support 100 such that the length of the telescopic leg 1a is shortened, thereby reducing the footprint of the multi-leg stand. Also, when the multi-legged support is used, the length of the telescopic leg 1a is adjustable, so that the multi-legged support can better adapt to uneven or inclined supporting surface 1001. And, this flexible stabilizer blade 1a can accomodate, and first chamber 108 that accomodates is close to first sliding tray 101 for this multi-legged support's compact structure, occupation volume after flexible stabilizer blade 1a accomodates bracing piece 3 is less.

It will be appreciated that the number of first links 7 is the same as the telescopic foot 1 a.

Illustratively, the first receiving cavity 108 is the same as the extending direction of the first sliding groove 101.

Illustratively, the first receiving cavity 108 includes an angle of 5 ° or less, such as 1 °,2 °,3 °,4 °,5 °, etc., with the extending direction of the first sliding groove 101.

Illustratively, 1 of the at least one first sliding groove 101 is a close-proximity first sliding groove 101, or all of the at least one first sliding groove 101 is a close-proximity first sliding groove 101.

The number of the first sliding grooves 101 is exemplified by 2, wherein 1 is the close-proximity first sliding groove 101, or 2 is the close-proximity first sliding groove 101.

The number of the first sliding grooves 101 is exemplified by 3, of which 1 is the close-proximity first sliding groove 101, 2 is the close-proximity first sliding groove 101, and 3 is the close-proximity first sliding groove 101.

In some implementations of the embodiments of the present utility model, the number of the adjacent first sliding grooves 101 is 1, and 1 adjacent first sliding groove 101 is located at one side of the first receiving cavity 108; or the number of the adjacent first sliding grooves 101 is 2, and the 2 adjacent first sliding grooves 101 are respectively positioned at two sides of the first accommodating cavity 108.

The advantage of this arrangement is that the telescopic foot 1a is compact in structure, so that the telescopic foot 1a occupies a smaller volume after being received in the support bar 3.

The number of the close-up first sliding grooves 101 is 1, and the close-up first sliding grooves 101 are located on one side of the first housing chamber 108.

Illustratively, the number of first sliding grooves 101 is at least 2, the number of close-proximity first sliding grooves 101 is 1, and 1 close-proximity first sliding groove 101 is located at one side of the first receiving cavity 108;

Illustratively, the number of the first sliding grooves 101 is at least 2, the number of the close-type first sliding grooves 101 is 2, and the 2 close-type first sliding grooves 101 are respectively located at two sides of the first receiving cavity 108.

The number of the first sliding grooves 101 is 2, and the 2 first sliding grooves 101 are all close-type first sliding grooves 101.

The number of the first sliding grooves 101 is 3, the number of the adjacent first sliding grooves 101 is 1, the 1 adjacent first sliding groove 101 is located at one side of the first receiving cavity 108, or the number of the adjacent first sliding grooves 101 is 2, and the 2 adjacent first sliding grooves 101 are respectively located at two sides of the first receiving cavity 108.

In some implementations of embodiments of the present utility model, referring to fig. 1-65, the first support 100 is further provided with at least one first mounting opening 102, the at least one first mounting opening 102 respectively corresponding to the at least one first sliding groove 101, the first mounting opening 102 communicating with the corresponding first sliding groove 101; the struts 210 are insertable into the corresponding first sliding grooves 101 via the corresponding first mounting openings 102.

With this arrangement, the first support 100 is provided with the first mounting opening 102, facilitating the mounting of the strut 210 to the first support 100.

In some implementations of the embodiments of the present utility model, referring to fig. 22, the second support 200 is configured to be supported on a supporting surface 1001 when the telescopic leg 1a is in a supporting state, the first support 100 has a second side 107b opposite to the first side 107a, the second side 107b is close to the supporting surface 1001 relative to the first side 107a when the telescopic leg 1a is in the supporting state, the first mounting opening 102 is provided on the second side 107b of the first support 100, and the first receiving cavity 108 is provided on the second side 107b of the first support 100.

In some implementations of the embodiments of the present utility model, at least 3 of the legs 1 are telescopic legs 1a, and when at least 3 of the telescopic legs 1a are received in the support bar 3, the second side 107b of the first support 100 of the at least 3 telescopic legs 1a forms a first cylindrical surface.

It is understood that the first columnar surface is a side surface of the first columnar structure, the first columnar structure may be a cylinder, an elliptic cylinder, a prism, a rounded prism, and the first columnar surface may be a cylindrical surface, an elliptic cylinder, a prismatic surface, a rounded prismatic surface, and the like.

Referring to fig. 1 to 65, the embodiment of the present utility model further proposes a multi-foot support 1 including a support bar 3, at least three feet 1, a first mounting portion 6 and at least one first link 7, the at least three feet 1 for supporting the support bar 3, the support bar 3 for supporting an electricity-consuming body 2, at least one of the at least three feet 1 being a telescopic foot 1a, the telescopic foot 1a including a first support 100 and a second support 200, the first support 100 being provided with at least one first sliding groove 101, the second support 200 including at least one strut 210, the at least one strut 210 corresponding to the at least one first sliding groove 101, respectively, the strut 210 being slidably mounted in the first sliding groove 101, the strut 210 being slidable with respect to the first support 100 to vary the length of the telescopic foot 1a, the strut 210 being configured to be positionable in the first support 100 when the telescopic foot 1a is in a supported state; at least one first connecting rod 7 corresponds to at least one telescopic supporting leg 1a respectively, the first installation part 6 is slidably installed on the supporting rod 3, one end of the first connecting rod 7 is rotatably connected with the first supporting piece 100 of the telescopic supporting leg 1a, and the other end of the first connecting rod is rotatably connected with the supporting rod 3; the first supporting member 100 is rotatably connected to the first mounting portion 6; when the first mounting part 6 slides along the telescopic rod, the included angle between the telescopic support leg 1a and the support rod 3 is changed; the first support 100 is provided with a first receiving cavity 108, the telescopic leg 1a being receivable in the support bar 3, the first receiving cavity 108 being configured to receive the first link 7 when the first support 100 is received in the support bar 3; at least 1 of the at least one first sliding groove 101 is a parallel type first sliding groove 101; the extending direction of the first receiving cavity 108 is parallel to the parallel first sliding groove 101.

It will be appreciated that the first receiving cavity 108 is parallel to the parallel first sliding grooves 101, which makes the telescopic leg 1a compact.

The number of first sliding grooves 101 is 1, and the number of parallel first sliding grooves 101 is 1, for example.

Illustratively, the number of first sliding grooves 101 is 2, and the number of parallel first sliding grooves 101 is 1, or 2.

Illustratively, the number of first sliding grooves 101 is 3, and the number of parallel first sliding grooves 101 is 1, 2, or 3.

In some implementations of the embodiments of the present utility model, the number of parallel first sliding grooves 101 is 1, and 1 parallel first sliding groove 101 is located at one side of the first sliding groove 101; the number of parallel first sliding grooves 101 is 2, and the 2 parallel first sliding grooves 101 are respectively positioned at two sides of the first sliding groove 101.

In some implementations of the embodiments of the present utility model, the number of parallel first sliding grooves 101 is 1, and 1 parallel first sliding groove 101 is close to one side of the first sliding groove 101; the number of parallel first sliding grooves 101 is 2, and the 2 parallel first sliding grooves 101 are respectively close to two sides of the first sliding groove 101.

In some implementations of the embodiments of the present utility model, the first support 100 is further provided with at least one first mounting opening 102, the at least one first mounting opening 102 respectively corresponding to the at least one first sliding groove 101, the first mounting opening 102 communicating with the corresponding first sliding groove 101; the struts 210 are insertable into the corresponding first sliding grooves 101 via the corresponding first mounting openings 102.

The first end of the strut 210 is insertable into the corresponding first sliding groove through the corresponding first mounting opening 102 such that the strut is slidably mounted in the first sliding groove, and gradually moves away from the first support member during extension of the telescopic leg 1a

In some implementations of the present invention, the second supporting member 200 is configured to be supported on a supporting surface 1001 when the telescopic leg 1a is in the supporting state, the first supporting member 100 has a second side 107b and a first side 107a opposite to each other, the second side 107b is close to the supporting surface 1001 with respect to the first side 107a when the telescopic leg 1a is in the supporting state, the first mounting opening 102 is provided on the second side 107b of the first supporting member 100, and the first receiving cavity 108 is provided on the second side 107b of the first supporting member 100.

Referring to fig. 1-65, the embodiment of the present utility model also proposes a telescopic leg 1a, the telescopic leg 1a being one of the legs 1 of the multi-leg stand, the telescopic leg 1a comprising a first support 100 and a second support 200, the second support 200 comprising at least one strut 210, the strut 210 being slidable with respect to the first support 100 to vary the length of the telescopic leg 1 a; when the telescopic leg 1a is in the supporting state, the strut 210 may be positioned at the first support 100.

The advantage of this arrangement is that when the multi-legged support is not in use, the strut 210 is slidable relative to the first sliding groove 101 such that the length of the telescopic leg 1a is shortened, thereby making the occupied volume of the telescopic leg 1a smaller, thereby making the occupied volume of the multi-legged support smaller.

In some implementations of the utility model, the second support 200 is supported on a support surface 1001 or the first support 100 is supported on a support surface 1001 when the telescoping leg 1a is in the supported state.

In some implementations of embodiments of the utility model, the number of struts 210 is 2.

In some implementations of embodiments of the utility model, 2 struts 210 are located on opposite sides of the strut 210, respectively.

In some implementations of embodiments of the present utility model, the strut 210 is sleeved on the first support 100.

The embodiment of the utility model also provides a telescopic support leg 1a, wherein the telescopic support leg 1a is used as one support leg 1 of the multi-leg support, the telescopic support leg 1a comprises a first support piece 100 and a second support piece 200, the first support piece 100 is provided with at least one first sliding groove 101, the second support piece 200 comprises at least one support rod 210 and a foot pad 220, the at least one support rod 210 corresponds to the at least one first sliding groove 101 respectively, and the support rod 210 is slidably arranged in the corresponding first sliding groove 101 so as to change the length of the telescopic support leg 1 a; the support bar 210 is connected to the foot pad 220, and when the telescopic leg 1a is in a supporting state, the foot pad 220 is supported on a supporting surface 1001, and the support bar 210 can be positioned on the first supporting member 100.

In some implementations of embodiments of the utility model, struts 210 are non-detachably connected to footrests 220.

In some implementations of embodiments of the present utility model, struts 210 are integrally connected with footer 220.

In some implementations of embodiments of the present utility model, struts 210 are removably connected with footrests 220.

In some implementations of embodiments of the present utility model, the struts 210 are screwed, riveted, snapped, or magnetically attached to the footpads 220.

In some implementations of embodiments of the utility model, the first support 100 has a first proximate edge 106a and the foot pad 220 has a second proximate edge 202a, the first proximate edge 106a being aligned with the second proximate edge 202a when the telescoping leg 1a is telescoping to the shortest state.

In some implementations of embodiments of the utility model, the first support 100 has a first lateral side 106 and the foot pad 220 has a second lateral side 202, the first lateral side 106 being aligned with the second lateral side 202 when the telescoping leg 1a is telescoping to the shortest state.

In some implementations of the embodiments of the present utility model, the first support 100 has a first end surface 109, the pad 220 has a second end surface 205, the first end surface 109 is adapted to the second end surface 205, and when the telescopic leg 1a is telescopic to the shortest state, the first end surface 109 is attached to or near the second end surface 205.

The embodiment of the utility model also provides a multi-foot support, which comprises a support rod 3 and at least three support feet 1, wherein the support rod 3 is used for supporting the power utilization main body 2, and the at least three support feet 1 are used for supporting the support rod 3; at least one telescoping leg 1a of the at least three legs 1.

In some implementations of embodiments of the utility model, at least three of the legs 1 are telescoping legs 1a.

Referring to fig. 49-65, the embodiment of the present utility model further proposes a telescopic leg 1a, wherein the telescopic leg 1a is used as one of the legs 1 of the multi-leg stand, the telescopic leg 1a comprises a first support 100 and a second support 200, the first support 100 is provided with at least one first sliding groove 101, at least one first mounting opening 102 and at least one second mounting opening 1012, the at least one first mounting opening 102 corresponds to the at least one first sliding groove 101 respectively, the first mounting opening 102 communicates with the corresponding first sliding groove 101, the at least one second mounting opening 1012 corresponds to the at least one first sliding groove 101 respectively, and the second mounting opening 1012 communicates with the corresponding first sliding groove 101; the second support 200 includes at least one strut 210, the at least one strut 210 corresponding to the at least one first sliding groove 101, respectively, the second support 200 includes at least one strut 210 corresponding to the at least one first sliding groove 101, the strut 210 having opposite first and second ends, the second end of the strut 210 being insertable into the corresponding first sliding groove 101 through the corresponding first mounting opening 102 such that the strut 210 is slidably mounted to the first sliding groove 101, the first end of the strut 210 extending from the first sliding groove 101 when the telescoping leg 1a is extended; the length of the telescopic leg 1a of the strut 210 can be changed relative to the first sliding groove 101, and the first end of the strut 210 gradually moves away from the first support 100 during the extension of the telescopic leg; the strut 210 is configured to be positionable in the first support 100 when the telescoping leg 1a is in a supported state.

When the telescopic support 1a of the embodiment of the present utility model is not used, the support rod 210 is slidable relative to the first sliding groove 101 so that the length of the telescopic support 1a is shortened, and thus the occupied volume of the telescopic support 1a is reduced, and thus the occupied volume of the telescopic support is reduced. And the first support 100 is provided with a first mounting opening 102, a second mounting opening 1012 to facilitate mounting of the second support 200 to the first support 100.

In some implementations of embodiments of the utility model, the strut 210 includes a stem 212 and a boss 211 removably mounted to the stem 212, the stem 212 being insertable into the first sliding channel 101 through a corresponding first mounting opening 102, the boss 211 being configured such that it is mountable to the stem 212 through a second mounting opening 1012 after the stem 212 is inserted into the first sliding channel 101.

Illustratively, the boss 211 is welded, glued, or otherwise affixed to the stem 212.

Illustratively, the boss 211 is removably mounted to the stem 212, e.g., the boss 211 is threaded, snapped, riveted, stitched, etc., with the stem 212.

It will be appreciated that the number of first mounting openings 102 is the same as the number of first sliding grooves 101, the number of struts 210 is the same as the number of first sliding grooves 101, and the number of second mounting openings 1012 is the same as the number of first sliding grooves 101.

Illustratively, the strut 210 is shaped to fit the first sliding channel 101.

Illustratively, the first mounting opening 102 is located at one end of the first support 100 and the second mounting opening 1012 is located at a side of the first support 100.

Illustratively, the shape of the first mounting opening 102 is the same as the cross-sectional shape of the first sliding groove 101.

It will be appreciated that the multi-foot rack may be, for example, a tripod rack, a tetrapod rack, a pentapod rack, a hexapod rack, i.e., the number of feet 1 of the multi-foot rack may be 3, 4, 5, 6, etc.

Illustratively, the multi-leg stand is used for supporting the power consumption main body 2, and the power consumption main body 2 may be a fan, a lamp, a mobile phone, a tablet, or the like.

It will be appreciated that the first mounting opening 102 may be any opening that facilitates insertion of the strut 210 into the first sliding channel 101 and the second mounting opening 1012 may be any shaped opening that facilitates removable mounting of the boss 211 to the rod 212.

It will be appreciated that the struts 210 may be positioned at any location on the first support 100, or that the struts 210 may be positioned at a particular location on the first support 100.

Illustratively, the strut 210 is in damping contact with the first sliding groove 101 to enable positioning at the first support 100 when the telescopic leg 1a is in a supported state, e.g. the strut 210 is interference fit with the first sliding groove 101 or the strut 210 is provided with damping shims with the inner wall of the first sliding groove 101.

Illustratively, a locking member is provided between the strut 210 and the first support 100, which locks the strut 210 to the first support 100 when the telescoping leg 1a is in the support state, the locking member being mountable to the first support 100, and adjusting the locking member locks or unlocks the strut 210 relative to the first support frame. For example, the locking member may be a threaded member threadedly mounted to the first support member 100, rotating the threaded member may cause it to abut or release the strut 210, the locking member may be a cam locking member rotatably mounted to the first support member 100, and rotating the boss locking member may cause it to abut or release the strut 210.

Illustratively, the first support 100 has a first positioning protrusion 110, the strut 210 has a second positioning protrusion 211a, the second positioning protrusion 211a abuts against or slides over the first positioning protrusion 110 when the strut 210 slides relative to the first sliding groove 101, and the second positioning protrusion 211a abuts against the first positioning protrusion 110 to position the strut 210 to the first support 100 when the telescopic leg 1a is in a supporting state. For example, the boss 211 may be the second positioning boss 211a, or a portion of the boss 211 may be the second positioning boss 211a.

For example, referring to fig. 65, in the telescopic leg 1a, when the strut 210 is only subjected to a tensile force or a compressive force in the sliding direction thereof, the strut 210 is in loose fit with the first support 100, for example, the strut 210 is in clearance fit with the first sliding groove 101. When the telescopic foot 1a is in a supported state, (for example only, the telescopic foot 1a may have an angle of 45 ° -89.9 °, such as 45 °, 60 °, 67 °, 75 °, etc.) with the plumb line, the pressure F of the first support 100 against the strut 210 may be decomposed into a component F1 perpendicular to its sliding direction and a component F2 along its sliding direction, the component F1 providing a friction force (tangential constraint force) F between the first support 100 and the first support 100, when f=f2, the strut 210 is positioned to the first support 100. The first support 100 has a first contact surface 103 in contact with the strut 210, the strut 210 is in frictional contact with the first contact surface 103 when the telescopic leg 1a is in the supporting state, F1 is parallel to the first contact surface 103, F2 is perpendicular to the first contact surface 103, F is parallel to the first contact surface 103, and when f=f2, the strut 210 is positioned at the first support 100. The first contact surface 103 may be two opposite sides of the first sliding groove 101.

Other examples, the post 210 includes only the stem portion 212, with the first mounting opening 102 located at the first end of the first support 100 to facilitate insertion of the post 210.

In some implementations of embodiments of the utility model, referring to fig. 59, a first limiting wall 104 is provided in the first sliding groove 101, and the boss 211 is configured to abut against the first limiting wall 104 when the telescopic leg 1a is extended to the longest state.

The advantage of providing the first limiting wall 104 is that the telescopic leg 1a is prevented from being pulled out of the first sliding groove 101 during the extension process, so that the telescopic leg 1a is complete during use.

Illustratively, the first sliding groove 101 includes a first sliding sub-groove 101a and a second sliding sub-groove 101b that are in direct communication, and the first limiting wall 104 is located at the junction of the first sliding sub-groove 101a and the second sliding sub-groove 101 b.

Illustratively, the first limiting wall 104 is curved or planar, e.g., the first limiting wall 104 may be a convex or concave curved surface.

Illustratively, when the first limiting wall 104 is planar, the first limiting wall 104 is perpendicular or non-perpendicular to the extending direction of the first sliding groove 101.

In some implementations of embodiments of the utility model, referring to fig. 61-64, the boss 211 is configured to be removably mounted to the shaft 212 via the second mounting opening 1012 after the shaft 212 is inserted into the first sliding channel 101, the shaft 212 including a connected shaft body section 212a and a mounting shaft section 212b, the boss 211 having a receiving slot 206 and a first opening 207, the first opening 207 being in communication with the receiving slot 206, the receiving slot 206 being adapted to mount the shaft section 212b, the mounting shaft section 212b being adapted to mount to the receiving slot 206 via the first opening 207.

It will be appreciated that the benefit of providing the first opening 207 facilitates the mounting of the boss 211 to the mounting bar segment 212b.

Illustratively, the groove walls of the receiving groove 206 elastically wrap around the mounting bar segment 212b such that the boss 211 is fitted to the mounting bar segment 212b.

In some implementations of embodiments of the utility model, referring to fig. 63, the receiving groove 206 is a cylindrical groove, the mounting bar section 212b is a cylinder, and the width of the first opening 207 is less than or equal to the diameter of the mounting bar section 212 b.

It will be appreciated that during installation of the mounting bar segment 212b into the receiving groove 206 via the first opening 207, the protrusions 211 will be elastically deformed such that the mounting bar segment 212b can be installed into the receiving groove 206 via the first mounting opening 102.

It will be appreciated that after mounting bar segment 212b is installed into receiving groove 206, the groove walls of receiving groove 206 elastically wrap around mounting bar segment 212b such that boss 211 fits into mounting bar segment 212b.

In some implementations of embodiments of the present utility model, referring to fig. 62, the lever portion 212 has two retaining walls 212c, the boss 211 is located between the two retaining walls 212c, and the two retaining walls 212c are configured such that the boss 211 is retained between the two retaining walls 212c when the telescopic leg 1a is telescopic; the second projection plane is perpendicular to the extending direction of the rod part 212, and the projection of the rod main body section 212a on the second projection plane contains the projection of the rod section 212b on the second projection plane; both ends of the mounting rod section 212b are connected with the rod main body section 212a, and two retaining walls 212c are respectively positioned at two junctions of the rod main body section 212a and the mounting rod section 212 b.

It will be appreciated that the mounting rod segment 212b is smaller in cross-section than the rod body segment 212a.

It will be appreciated that the junction of the mounting rod segment 212b and the rod body segment 212a is stepped.

It will be appreciated that the pole body section 212a is split into two sections, with the two sections of the pole body section 212a being connected to the two ends of the mounting pole section 212b, respectively.

Illustratively, the mounting rod section 212b and the rod cylinder section are both cylindrical, the mounting rod section 212b is coaxial with the rod body section 212a, and the mounting rod section 212b has a smaller diameter than the rod body section 212a.

Illustratively, the retaining wall 212c may be any shape of the retaining protrusion 211, such as planar, curved.

In some implementations of embodiments of the present utility model, referring to fig. 53, 59, etc., the first sliding groove 101 includes a first sliding sub-groove 101a and a second sliding sub-groove 101b communicating with the first sliding sub-groove 101a, the first sliding sub-groove 101a for sliding of the boss 211; the first sliding sub groove 101a has a first sliding wall 101d, the boss 211 has a second sliding wall 211c adapted to the first sliding wall 101d, and the second sliding sub groove 101b is adapted to the rod 212 when the telescopic leg 1a is telescopic; the second sliding wall 211c is configured to slide along the first sliding wall 101d when the telescopic leg 1a is telescopic.

It is understood that the first sliding sub groove 101a may be any shape space for sliding of the boss 211.

It is understood that the first sliding wall 101d may be a stretched surface along the stretching direction of the stretching foot 1 a.

It is understood that the second sliding wall 211c may be a stretched surface along the stretching direction of the stretching foot 1 a.

It will be appreciated that the first sliding wall 101d is adapted to the second sliding wall 211 c.

Illustratively, the first sliding wall 101d may be a plane, a cylindrical surface, a prismatic surface, etc., and the second sliding wall 211c may be a plane, a cylindrical surface, a prismatic surface, etc. that is adapted to the first sliding wall 101 d.

In some implementations of embodiments of the utility model, referring to fig. 59, a first limiting wall 104 is provided in the first sliding groove 101, and the boss 211 is configured to abut against the first limiting wall 104 when the telescopic leg 1a is extended to the longest state; the first limiting wall 104 is located at the junction of the first sliding sub-groove 101a and the second sliding sub-groove 101 b.

Other examples include the first limiting wall 104 being located elsewhere in the first sliding sub-groove 101 a.

In some implementations of embodiments of the present utility model, referring to fig. 61, the second support 200 further includes a foot pad 220, the foot pad 220 being non-detachably connected with the strut 210; the foot pad 220 is configured to be supported on a support surface 1001 when the telescoping leg 1a is in a supported state.

Illustratively, the footpads 220 are welded, glued, adhered, encapsulated, etc. to the struts 210.

Illustratively, the strut 210 is a metal piece, the pad 220 is an injection-molded piece, and the pad 220 is encapsulated around the strut 210 in an over-molded manner.

In some implementations of embodiments of the present utility model, footer 220 is integrally connected to strut 210.

Illustratively, footrests 220 are integrally cast with struts 210.

Illustratively, footrests 220 are integrally injection molded with struts 210.

In some implementations of the present embodiment, the second support 200 further includes a foot pad 220, and the foot pad 220 is detachably connected to the strut 210; the foot pad 220 is configured to be supported on a support surface 1001 when the telescoping leg 1a is in a supported state.

In some implementations of embodiments of the present utility model, the number of struts 210 is 2, with 2 struts 210 being located on opposite sides of the first support 100, respectively.

In some implementations of the present utility model, the second support 200 is configured to be supported on a support surface 1001 when the telescopic leg 1a is in the supporting state, the first support 100 has a second side 107b and a first side 107a opposite to each other, the second side 107b is adjacent to the support surface 1001 relative to the first side 107a when the telescopic leg 1a is in the supporting state, and the second mounting opening 1012 is provided in the second side 107b of the first support 100.

In some implementations of embodiments of the utility model, referring to fig. 64, a first mounting opening 102 is provided at a first end of the first support 100 from which the strut 210 extends when the telescoping leg 1a is extended.

In some implementations of embodiments of the utility model, the lever has opposite first and second ends, the second end of the lever being insertable into a corresponding first slide slot through a corresponding first mounting opening, the first end of the lever protruding from the first slide slot when the telescoping leg is extended.

In some implementations of embodiments of the present utility model, referring to fig. 67-68, the second adjusting portion of the adjusting member 300 is engaged with the first adjusting portion 211b of the strut 210, when the adjusting member 300 rotates to rotate the strut 210 such that the strut 210 is mounted to the pad 220. When the adjusting member 300 rotates the strut 210, the adjusting member 300 is at least partially located in the first mounting opening 102. For example, the rotation axis of the adjusting member 300 has an inclination angle with respect to the rotation axis of the supporting rod 210 of 15 ° (e.g., 1 °,3 °,5 °, 9 °,10 °, 15 °, etc.), when the first end of the adjusting member 300 is engaged with the first adjusting portion 211b, the second end of the adjusting member extends out of the first supporting member 100 through the first mounting opening 102, the second end of the adjusting member extends out of the first supporting member 100, so that the user can conveniently handle the adjusting member, e.g., the adjusting member is a screwdriver, the second end of the adjusting member has a holding portion 320, and the second end of the adjusting member extends out of the first supporting member 100, so that the user can conveniently hold the holding portion 320 of the adjusting member 300.

For another example, the adjusting member 300 is a driving rod, and the second end of the adjusting member has a mating portion, where the mating portion of the driving rod can be mated with the output shaft of the motor, and the second end of the adjusting member extends beyond the first supporting member 100, so that the mating portion of the adjusting member can be mated with the output shaft of the motor.

It will be appreciated that the first end of the adjustment member 300 has a second adjustment portion 310, and the second adjustment portion 310 may be a second adjustment protrusion or a second adjustment groove.

For another example, when the adjusting member 300 rotates the strut 210, the adjusting member 300 is integrally located in the first mounting opening 102, and the rotation axis of the adjusting member 300 is coaxial with the rotation axis of the strut 210.

The above description is only for the purpose of illustrating the technical solution of the present utility model and not for the purpose of limiting the same, and other modifications and equivalents thereof by those skilled in the art should be included in the scope of the claims of the present utility model without departing from the spirit and scope of the technical solution of the present utility model.

Claims

1. A telescopic support leg is characterized in that the telescopic support leg is used as one support leg of a multi-leg support,

The telescoping leg includes a first support and a second support,

The first support is provided with at least one first sliding groove and at least one first mounting opening, the at least one first mounting opening corresponds to the at least one first sliding groove respectively, the first mounting opening is communicated with the corresponding first sliding groove,

The second supporting piece comprises at least one supporting rod and a foot pad, the at least one supporting rod corresponds to the at least one first sliding groove respectively, the first end of the supporting rod can be inserted into the corresponding first sliding groove through the corresponding first mounting opening so that the supporting rod is slidably mounted in the first sliding groove, the supporting rod can slide relative to the first sliding groove to change the length of the telescopic supporting leg, the first end of the supporting rod can extend out of the first sliding groove so that the supporting rod is connected with the foot pad in a screwed mode, and in the process of extending the telescopic supporting leg, the first end of the supporting rod is gradually far away from the first supporting piece;

The support rod is provided with a first adjusting part, the first adjusting part is configured to be matched with an adjusting piece, the adjusting piece is provided with a second adjusting part matched with the first adjusting part, the adjusting piece can be matched with the first adjusting part through the first mounting opening and can rotate, and the support rod can be driven to rotate when the adjusting piece rotates so that the support rod can be fastened or unfastened with the foot pad;

When the telescopic support legs are in a supporting state, the support legs are supported on a supporting surface, and the support rods can be positioned on the first supporting piece.

2. The telescoping leg as in claim 1, wherein the first adjustment portion is a first adjustment slot and the second adjustment portion is a second adjustment tab.

3. The telescoping leg of claim 2, wherein the first adjustment slot is a quincuncial slot and the second adjustment tab is a quincuncial tab,

Or the first adjusting groove is a straight groove, and the second adjusting protrusion is a straight protrusion;

Or the first adjusting groove is a cross groove, and the second adjusting protrusion is a cross protrusion;

Or the first adjusting groove is a polygonal groove, and the second adjusting protrusion is a polygonal protrusion;

Or the first adjusting groove is a semicircular groove, and the second adjusting protrusion is a semicircular protrusion;

or the first adjusting groove is an elliptical groove, and the second adjusting protrusion is an elliptical protrusion.

4. The telescoping leg as in claim 2, wherein the first adjustment slot is a cylindrical slot and the second adjustment tab is a cylindrical tab;

Or the first adjusting groove is a table-shaped groove, and the second adjusting protrusion is a table-shaped protrusion;

or the first adjusting groove is a conical groove, and the second adjusting protrusion is a conical protrusion.

5. The telescoping leg as in claim 1, wherein the first adjustment feature is a first adjustment tab and the second adjustment feature is a second adjustment slot.

6. The telescoping leg as in claim 5, wherein the first adjustment tab is a quincuncial tab and the second adjustment slot is a quincuncial slot,

Or the first adjusting protrusion is a straight protrusion, and the second adjusting groove is a straight groove;

or the first adjusting bulge is a cross bulge, and the second adjusting groove is a cross groove;

or the first adjusting protrusion is a polygonal protrusion, and the second adjusting groove is a polygonal groove;

Or the first adjusting protrusion is a semicircular protrusion, and the second adjusting groove is a semicircular groove;

or the first adjusting protrusion is an elliptical protrusion, and the second adjusting groove is an elliptical groove.

7. The telescoping leg as in claim 5, wherein,

The first adjusting protrusion is a columnar protrusion, and the second adjusting groove is a columnar groove;

or the first adjusting protrusion is a table-shaped protrusion, and the second adjusting groove is a table-shaped groove;

Or the first adjusting protrusion is a conical protrusion, and the second adjusting groove is a conical groove.

8. The telescopic support leg according to claim 1, wherein the support leg is provided with a first threaded hole, one end of the support rod, which is close to the support leg, is provided with external threads, and the external threads are matched with the first threaded hole;

Or the pad foot is provided with a first threaded column, the supporting rod is provided with a second threaded hole, and the first threaded column is matched with the second threaded hole.

9. The telescopic leg according to claim 1, wherein the first support member is provided with a first clamping portion and the foot pad is provided with a second clamping portion; when the telescopic support leg is contracted to the shortest state, the first clamping part is clamped with the second clamping part;

the first support has a first access edge and the foot pad has a second access edge, the first access edge being aligned with the second access edge when the telescoping leg is telescoping to a shortest state.

10. The telescopic support leg according to claim 1, wherein the support rod comprises a rod part and a protruding part, the protruding part is protruding on the rod part, the rod part is connected with the pad in a screwed mode, and the first adjusting part is arranged on the protruding part;

A first limiting wall is arranged in the first sliding groove, and the protruding part is configured to abut against the first limiting wall when the telescopic support leg stretches to the longest state;

The first support piece is provided with a first positioning protrusion, the protrusion part is propped against or slides over the first positioning protrusion when the supporting rod slides relative to the first sliding groove, and the protrusion part and the first positioning protrusion are propped against each other to enable the supporting rod to be positioned on the first support piece when the telescopic supporting leg is in a supporting state.

11. The telescoping leg as in claim 1, wherein,

The first support piece is provided with a second side face and a first side face which are opposite, the second side face is close to the supporting face relative to the first side face when the telescopic support leg is in a supporting state, and the first mounting opening is formed in the second side face of the first support piece.

12. The multi-foot support is characterized by comprising a support rod and at least three supporting feet, wherein the support rod is used for supporting an electricity utilization main body, and the at least three supporting feet are used for supporting the support rod; the telescopic leg of any one of claims 1-11 is among the at least three legs.