Connector floating fixing seat structure

Abstract

The utility model provides a connector floating fixing seat structure. The connector floating fixing seat structure comprises a fixing seat, an adapter seat, a guide sliding group, an abutting gasket and a spring, an accommodating space is arranged in the fixed seat, and the adapter seat is arranged in the accommodating space in a penetrating manner. The guide sliding group is movably accommodated in the accommodating space and sleeved on the adapter seat, and comprises a sliding element capable of moving left and right and a guide seat capable of moving up and down along the sliding element, so that the adapter seat penetrating through the guide sliding group can move left and right and up and down along with the guide sliding group. The abutting gasket is connected to the adapter in a sleeved mode, the spring is located between the guiding sliding set and the abutting gasket and abuts against the abutting gasket, and the abutting gasket abuts against the adapter to eliminate the influence of spring pre-pressing. Therefore, radial sliding adjustment is achieved, resistance between the sliding element and the adapter is reduced, stability and flexibility of joint butt joint are improved, and the problems that eccentric correction of the joint is difficult, and failure is caused by too large sliding resistance are solved.

Description

TECHNICAL FIELD

[0001] The utility model relates to a joint floating fixing seat, especially a joint floating fixing seat structure for reducing radial sliding resistance of a water cooling system. BACKGROUND

[0002] With the improvement of server operation performance, the heat generated by the internal operation unit also increases, and a plurality of servers are arranged in a server cabinet, and the space distance between each server is relatively narrow, so that additional heat dissipation modules cannot be arranged to dissipate heat for each server. The conventional heat dissipation module through air cooling cannot meet the heat generated by the server, and the narrow space between servers easily generates heat accumulation. Therefore, manufacturers use water cooling to provide heat dissipation for servers in the server cabinet. Since the server has precise electronic components, various water cooling pipeline configurations must avoid water leakage at each connection point to prevent damage to electronic components caused by water leakage. To prevent water leakage, most server pipelines use hard or metal pipes for cooling water pipeline configuration. Most of the circulating pipelines are arranged on the server cabinet, and since each server and the server cabinet are arranged in a horizontal drawer style, a male and female quick connector is arranged on the server and the server cabinet. When the water cooling pipeline of the server and the server cabinet is assembled, a small amount of radial tolerance is generated, and in order to easily guide the small amount of radial tolerance of the two quick connectors, at least one guide post is arranged next to the position of the quick connector of the server cabinet, and a guide seat is arranged next to the position of the guide post of the server, and the guide seat has a guide hole. When the two quick connectors are assembled, the guide post is inserted into the guide hole of the guide seat first, and the two quick connectors with some eccentricity are guided to be coaxial first, and then connected.

[0003] However, the conventional water cooling connector is in a fixed relationship, and when the eccentricity of the two quick connectors is too large, the guide post and the guide seat cannot be used to guide the connection. Therefore, a floating connector seat with radial offset is provided to correct the radial tolerance of the two non-coaxial connectors with radial translation. However, the conventional floating connector seat has a large resistance when sliding in the radial direction, which affects the connection between the two connectors. The reasons for the large resistance of the conventional floating connector seat when sliding in the radial direction are as follows. The structure of the conventional floating connector seat has a large spring force, and the position of the sliding element is not conducive to radial sliding. In addition, the force arm of the opening of the guide hole of the sliding element to the guide seat is long, and the moment generated is large, which causes the radial sliding resistance of the two connectors to be large. Moreover, the radial sliding resistance of the conventional floating connector seat is affected by the axial force, which causes unstable state. In addition, the sliding element of the floating connector seat is easy to fall off when the two connectors are connected. Therefore, the various shortcomings derived are the direction of improvement that the designers and related people in this industry are eager to research. Practical new type content

[0004] Therefore, in order to effectively solve the above problems, the purpose of the present application is to improve the large resistance of the conventional floating connector seat when sliding in the radial direction, and the unstable state caused by the radial sliding resistance of the floating connector seat affected by the axial force, and to provide a floating connector seat structure.

[0005] Another purpose of the present application is to improve the floating connector seat structure which is easy to cause the sliding element of the floating connector seat to fall off when the two connectors are connected.

[0006] In order to achieve the above purpose, the present application provides a floating connector seat structure, which comprises:

[0007] A fixed seat has a receiving space inside, and two ends thereof are respectively provided with an open end and a closed end. The receiving space is located between the open end and the closed end. The closed end is provided with a through hole, and the open end has an opening. The opening is connected to the through hole through the receiving space;

[0008] A connector seat has a connecting segment, a sleeve segment and a buffer segment connecting the sleeve segment and the connecting segment. The sleeve segment extends out of the through hole through the opening and the receiving space. The buffer segment is located in the receiving space, and the connecting segment is located outside the opening;

[0009] A guide sliding group is movably arranged in the receiving space of the fixed seat and sleeved on the buffer segment. The guide sliding group comprises:

[0010] a sliding element slidably disposed in the accommodating space and provided with a sliding slot for the buffer segment to pass through, the sliding element being provided with a sliding channel corresponding to the opening of the open end of the fixed seat;

[0011] a guide seat passing through the opening and slidably disposed in the sliding channel and sleeved with the buffer segment, so that the adapter seat can move up and down along the sliding channel;

[0012] a stop washer sleeved with the buffer segment and accommodated in the accommodating space, the stop washer being located between the guide sliding group and the closed end; and

[0013] a spring sleeved with the buffer segment and accommodated in the accommodating space, the spring being located between the guide sliding group and the stop washer.

[0014] The joint floating fixed seat structure, wherein the sliding element is provided with an inner washer sliding slot corresponding to the closed end of the fixed seat, and the guide sliding group further comprises:

[0015] an inner washer sleeved with the buffer segment and accommodated in the accommodating space, the inner washer being slidably disposed in the inner washer sliding slot.

[0016] The joint floating fixed seat structure, wherein further comprises:

[0017] a sliding washer sleeved with the sleeved segment.

[0018] The joint floating fixed seat structure, wherein further comprises:

[0019] a fixed element sleeved with the sleeved segment, the sliding washer being located between the fixed element and the closed end.

[0020] The joint floating fixed seat structure, wherein further comprises:

[0021] a resilient element sleeved with the sleeved segment, the resilient element being located between the sliding washer and the closed end.

[0022] The joint floating fixed seat structure, wherein: the stop washer comprises a protrusion extending through the through hole, and the protrusion abuts against the sliding washer.

[0023] The joint floating fixed seat structure, wherein: the open end of the fixed seat has a lower notch, the lower notch being communicated with the opening and the accommodating space, and the guide seat further comprises:

[0024] a guide block extending out of the fixed seat via the lower notch, the guide block having a guide hole capable of corresponding to a guide post being inserted, the movement of the adapter seat being guided by the guide post being inserted into the guide hole.

[0025] The joint floating fixing seat structure, wherein: the buffer section comprises an outer buffer section adjacent to the opening and an inner buffer section away from the opening, the inner gasket, the abutting gasket and the spring are arranged on the inner buffer section, the guide sliding group is arranged on the outer buffer section, and a gap is formed between the sliding element and the inner gasket.

[0026] The joint floating fixing seat structure, wherein: the outer diameter of the outer buffer section is greater than the outer diameter of the inner buffer section, so that a step surface is formed between the outer buffer section and the inner buffer section, and the step surface can limit the inner gasket on the inner buffer section.

[0027] The joint floating fixing seat structure, wherein: a sliding surface is arranged in the accommodating space of the fixing seat, the sliding element slides on the sliding surface, and the sliding surface and the step surface are not located in the same plane.

[0028] Therefore, the joint floating fixing seat structure of the utility model improves the larger resistance when the conventional joint floating fixing seat slides in the radial direction, and the radial sliding resistance of the fixing seat is affected by the axial force, which causes an unstable state. Moreover, the joint floating fixing seat structure of the utility model can also control the size of the radial sliding resistance of the adapter seat, provide the required hand feeling of the user, and can more completely slide in the radial direction, reduce the space or structural limitation during the connection, more flexibly guide the joint to the joint position. Furthermore, the radial sliding resistance of the adapter seat is less affected by the spring pre-pressure. In addition, the adapter seat can bear the axial tolerance through the compression stroke provided by the spring, and the joint can be slightly inclined. BRIEF DESCRIPTION OF DRAWINGS

[0029] Figure 1 It is a three-dimensional exploded schematic view of the joint floating fixing seat structure of the utility model;

[0030] Figure 2 It is a partial three-dimensional exploded schematic view of the joint floating fixing seat structure of the utility model;

[0031] Figure 3 It is a three-dimensional assembly schematic view of the joint floating fixing seat structure of the utility model;

[0032] Figure 4 It is a cross-sectional schematic view of the joint floating fixing seat structure of the utility model;

[0033] Figure 5 It is a structure enlarged schematic view of the dashed circle part of Figure 4

[0034] Figure 6 It is an actuation schematic view of the joint floating fixing seat structure of the utility model; ​

[0035] Figure 7 The figure is a schematic diagram of the joint floating fixing seat structure.

[0036] Reference signs: fixing seat 1; accommodating space 10; open end 11; opening 110; lower notch 111; closed end 12; through hole 120; sliding surface 13; adapter seat 2; joint segment 21; limiting part 211; buffer segment 22; outer buffer segment 221; inner buffer segment 222; segment difference surface 223; sleeving segment 23; guide sliding group 3; sliding element 31; sliding groove 310; sliding groove 311; inner gasket sliding groove 312; guide seat 32; guide block 321; guide hole 322; inner gasket 33; abutting gasket 5; convex part 51; spring 6; fixing element 7; sliding gasket 8; elastic element 9; male joint A; gap G; length L; thickness T. DETAILED DESCRIPTION

[0037] The above-mentioned purposes of the utility model and the structural and functional characteristics thereof will be described in accordance with the preferred embodiments of the accompanying drawings.

[0038] Please refer to the utility model Figures 1 to 5 shown, the utility model provides a kind of joint floating fixing seat structure, at least include a fixing seat 1, an adapter seat 2, a guide sliding group 3, an abutting gasket 5, a spring 6, a fixing element 7, a sliding gasket 8 and a elastic element 9.

[0039] As Figure 1 , Figure 2 and Figure 4 Shown, the inside of the fixing seat 1 has an accommodating space 10, and its two ends are respectively provided with an open end 11 and a closed end 12, the accommodating space 10 is located between the open end 11 and the closed end 12, the closed end 12 is provided with a through hole 120, the open end 11 has an opening 110, the opening 110, the accommodating space 10 and the through hole 120 are in communication.

[0040] Please refer to Figure 1 , Figure 3 and Figure 4As shown, the adapter 2 has a socket segment 23 and a joint segment 21 at two ends thereof, and the socket segment 23 and the joint segment 21 are connected via a buffer segment 22. The socket segment 23 extends out of the through hole 120 through the opening 110 and the accommodating space 13 of the fixed seat 1, the buffer segment 22 is located in the accommodating space 10 of the fixed seat 1, and the joint segment 21 is located outside the opening 110 of the fixed seat 1. In some embodiments, a pipe channel can be provided inside the adapter 2 to allow stable transmission of fluid, and the adapter 2 and the male connector A are connected and docked with each other in a threaded locking manner, or the joint segment 21 is additionally extended with a structure to be used in conjunction with other elements, or the adapter 2 and the male connector A are integrally formed, and the utility model is not limited thereto.

[0041] As shown in Figures 1 to 2 and Figures 6 to 7 The guide sliding group 3 can be movably accommodated in the accommodating space 10 and sleeved on the buffer segment 22 relative to the fixed seat 1 in a cross movement manner, and the guide sliding group 3 comprises: a sliding element 31 sleeved on the buffer segment 22 and sleeved on the buffer segment 22, the sliding element 31 is provided with a sliding groove 310 for the buffer segment 22 to pass through, the sliding element 31 is provided with a sliding groove 311 corresponding to the opening 110 of the open end 11 of the fixed seat 1, and the sliding element 31 is provided with an inner gasket sliding groove 312 corresponding to the closed end 12 of the fixed seat 1; a guide seat 32 passing through the opening 110 and sleeving on the buffer segment 22 and sleeving on the buffer segment 22, so that the adapter 2 can move up and down, axially or vertically along the sliding groove 311; and an inner gasket 33 sleeved on the buffer segment 22 and accommodated in the accommodating space 10, and the inner gasket 33 is sleeved in the inner gasket sliding groove 312.

[0042] Specifically, in the embodiment, the sliding element 31 is slidably accommodated in the accommodating space 10, and the sliding groove 310 is provided thereon to allow the buffer segment 22 to pass through, and the adapter 2 can be radially slid. For example, the sliding element 31 can be a block in a hollow shape, but the shape of the sliding element 31 is not limited to a square, a circle, an ellipse or a polygon. In addition, in the embodiment, the sliding groove 310 is a long hole extending upward and downward, so that the buffer segment 22 can move up and down or vertically in the sliding groove 310, so that the adapter 2 and the fixed seat 1 can move radially relative to each other. Furthermore, the sliding groove 310 is axially communicated with the sliding groove 311, and the length of the radial direction of the sliding groove 310 is less than the length of the sliding groove 311.

[0043] In the present embodiment, the adapter 2 provided in the sliding element 31 can be displaced left and right in the fixed seat 1 together with the sliding element 31. In addition, the adapter 2 can be slid up and down in the sliding groove 310 without interference. For example, the sliding groove 310 extends longitudinally, thus leaving space for the adapter 2 to slide up and down. Therefore, although the sliding element 31 is limited up and down by the fixed seat 1, the adapter 2 can still be adjusted up and down in the sliding groove 310. Through the design that the guide seat 32 can be slid in the sliding groove 311 and sleeved with the buffer section 22, the adapter 2 can be moved up and down along the sliding groove 311. In this way, the guide sliding group 3 can be movably accommodated in the accommodation space 10 relative to the fixed seat 1 in the cross movement mode, and the adapter 2 can also be moved left and right and up and down in the cross form.

[0044] In addition, the sliding element 31 is provided with the inner gasket sliding groove 312 and the sliding groove 311 on the front and rear sides, respectively, to slide the inner gasket 33 and the guide seat 32, respectively, so that they can slide up and down along the inner gasket sliding groove 312 and the sliding groove 311, respectively. In addition, the inner gasket 33 and the guide seat 32 are sleeved with the buffer section 22 of the adapter 2. Since the inner gasket 33 and the guide seat 32 are tightly fitted or closely fitted (that is, without relative radial sliding) with the buffer section 22 of the adapter 2, the buffer section 22, the inner gasket 33, and the guide seat 32 move together, so that the adapter 2 can be slid up and down in the sliding groove 310.

[0045] In summary, please refer to Figure 4 、 Figure 6 and Figure 7 Therefore, the sliding element 31 and the adapter 2 can be displaced left and right in the accommodation space 10 in the fixed seat 1 together, and the adapter 2 can also be displaced up and down relative to the sliding element 31 together with the inner gasket 33 and the guide seat 32. In this way, the adapter 2 can be freely slid (that is, up and down and left and right) relative to the fixed seat 1 in the radial direction, and the adapter 2 can be fixed in the fixed seat 1 and is not easy to be separated, thus improving the stability and reliability of the structure.

[0046] In addition, please refer to Figure 4As shown, the inner gasket 33 is sleeved on the buffer section 22 of the adapter 2 and accommodated in the accommodating space 10, and the inner gasket 33 is located between the guide sliding group 3 and the closed end 12, more specifically, the inner gasket 33 is located between the sliding element 31 and the closed end 12. The abutting gasket 5 is sleeved on the buffer section 22 of the adapter 2 and accommodated in the accommodating space 10, and the abutting gasket 5 is located between the inner gasket 33 and the closed end 12, and located in the accommodating space 10 of the fixed seat 1 close to the through hole 120, abutting the closed end 12 of the fixed seat 1. Correspondingly, the sliding gasket 8 is sleeved on the sleeving section 23 of the adapter 2, arranged outside the closed end 12 of the fixed seat 1 and located between the fixed element 7 and the closed end 12.

[0047] Specifically, the abutting gasket 5 abuts the inner wall surface of the closed end 12 of the fixed seat 1, and the abutting gasket 5 has a protrusion 51 on the side facing the through hole 120. The protrusion 51 extends through the through hole 120, for example, the protrusion 51 can be a ring tube structure with a fixed diameter, so that the sliding gasket 8 can be directly abutted and supported by the protrusion 51 of the abutting gasket 5. In some embodiments, the abutting gasket 5 and the protrusion 51 thereof can be integrally formed or arranged in a non-integral manner, but are not limited thereto.

[0048] In this embodiment, the sleeving section 23 of the adapter 2 extends to the outside of the through hole 120 of the fixed seat 1 and can provide structural support for elements such as cooling liquid delivery pipes or seals (not shown in the figure). In addition, the outer periphery of the sleeving section 23 is usually provided with a clamping groove for fixing components such as the sliding gasket 8, so that they cannot be separated from the through hole 120 and are axially limited, so as to avoid displacement of the adapter 2 from the fixed seat 1.

[0049] The protrusion 51 extends axially through the through hole 120 and directly contacts the sliding gasket 8, so that the external force can be directly transmitted to the sliding gasket 8 to avoid the force acting on the inner periphery of the through hole 120, and the force from the sliding gasket 8 is borne by the sliding gasket 8 itself (or an additional fixed element 7) which is axially limited; in this way, when the abutting gasket 5 is pushed, the force will not act between the abutting gasket 5 and the fixed seat 1, effectively reducing the frictional resistance of the contact surface. Therefore, the utility model can achieve the effect of avoiding displacement of the adapter 2 due to force, thereby avoiding the increase of sliding resistance of the adapter 2 due to external force, and ensuring that the force is still free to slide radially. Furthermore, through the cooperation of the abutting gasket 5 and the sliding gasket 8, the adapter 2 is stably fixed by penetrating and cooperating with the fixed seat 1, while effectively reducing the resistance.

[0050] At this time, as Figure 4As shown, the engaging section 21 of the adapter 2 is located at the other end opposite to the socket section 23, and is also outside the accommodating space 10 of the fixed seat 1. Specifically, the inner circumferential surface of the pipe passage near the end face of the engaging section 21 can be provided with a thread or a buckle structure for locking, for connecting the male joint A. When the joints are connected, as shown in Figure 3 and Figure 4 the stress during connection of the male joint A can be directly guided to the engaging section 21, so as to make the adapter 2 slide radially.

[0051] In this embodiment, as shown in Figure 4 the guide seat 32 can also be branched in an L shape to connect a guide block 321 extending therefrom below, and extend in parallel to the axial direction of the adapter 2. The guide block 321 has a guide hole 322 into which a guide post (not shown) can be inserted, and the movement of the adapter 2 is guided by inserting the guide post into the guide hole 322. When connected, the guide block 321 can be inserted into the guide post (not shown) to guide the movement of the adapter 2 in the radial direction, so as to correct the tolerance and smoothly perform the connection. It can be understood that, in order to enable the guide block 321 to move up and down smoothly, a lower notch 111 is provided at the open end 11 of the fixed seat 1, as shown in Figure 2 the lower notch 111 is connected to the opening 110 and the accommodating space 10, and the guide block 321 can extend out of the fixed seat 1 through the lower notch 111.

[0052] In addition, in this embodiment, the buffer section 22 includes an outer buffer section 221 adjacent to the opening 110 and an inner buffer section 222 away from the opening 110. The inner gasket 33, the abutting gasket 5, and the spring 6 are arranged on the inner buffer section 222, the guide sliding group 3 is arranged on the outer buffer section 221, and a gap G is formed between the sliding element 31 and the inner gasket 33. It can be understood that the outer diameter of the outer buffer section 221 is greater than the outer diameter of the inner buffer section 222, so that a step surface 223 is formed between the outer buffer section 221 and the inner buffer section 222, and the step surface 223 limits the position of the inner gasket 33 on the inner buffer section 222. In addition, a sliding surface 13 is arranged in the accommodating space 10 of the fixed seat 1, the sliding element 31 slides on the sliding surface 13, and the sliding surface 13 and the step surface 223 are not located in the same plane. In this way, the sliding element 31 and the inner gasket 33 do not contact each other due to the gap G, so as to effectively solve the problem of large resistance during sliding of the joint, and thus the operation is more stable, convenient, labor-saving, and the like. It can be understood that the length L of the sliding surface 13 from the opening 110 is greater than or equal to the thickness T of the guide sliding group 3, so as to ensure that the guide sliding group 3 moves in the accommodating space 10, and can be completely protected by the fixed seat 1, so as to prevent the guide sliding group 3 from falling off.

[0053] In the present embodiment, the buffer section 22 is a connecting portion between the joint section 21 and the sleeve section 23, which has an outer diameter slightly smaller than that of the joint section 21, and is arranged in the sliding groove 310 of the sliding element 31 in the set state to perform various radial sliding (e.g., up, down, left, and right) relative to the fixed seat 1. Moreover, the difference in the outer diameter of the buffer section 22 and the joint section 21 forms a limiting portion 211. The limiting portion 211 is a ring-shaped planar structure surrounding the joint between the adapter seat 2 and the joint section 21 and contacting the guide seat 32, which is stopped by the fixed seat 1 together with the guide seat 32, so as to prevent the joint section 21 from moving excessively into the fixed seat 1 in the axial direction, thereby improving the stability of the overall structure. Moreover, the limiting portion 211 can effectively disperse external forces applied to the adapter seat 2, while ensuring that the relative position between the adapter seat 2 and the fixed seat 1 remains accurate.

[0054] In addition, the sleeve section 23 of the adapter seat 2 can also be sleeved with the fixing element 7 to axially limit the sleeve section 23, and the fixing element 7 abuts against the sliding washer 8. In the present embodiment, the fixing element 7 can be a clasp (e.g., a C-shaped clasp) or a ring-shaped nut with internal threads for locking. The sleeve section 23 can also form a corresponding clamping groove at the position where the clasp is fixed, so as to fasten the clasp at a predetermined position (e.g., the clamping groove), thereby preventing unwanted relative axial movement between the elements of the joint floating seat structure. As long as the axial limitation is effective, the present application is not limited in this regard.

[0055] The spring 6 is sleeved on the buffer section 22 of the adapter seat 2 and accommodated in the accommodating space 10, with both ends abutting against the inner washer 33 and the abutting washer 5, respectively, and providing a certain pre-pressure towards both ends, so as to support the radial position of the adapter seat 2 floating in the fixed seat 1, while also providing force buffering during connection. At the same time, the compression stroke of the spring 6 can adapt to the tolerance variation in the axial direction, allowing the adapter seat 2 to withstand a certain range of dimensional errors during operation. In addition, the flexible design of the spring 6 enables it to support slight tilting adjustment of the adapter seat 2, further improving the dynamic adaptability and operational stability of the structure. Furthermore, the use of the inner washer 33 and the abutting washer 5 against the adapter seat 2 can eliminate the influence of the pre-pressing of the spring 6 on the fixed seat 1.

[0056] When the connector is being mated, because the spring 6 is sleeved with the inner gasket 33 and the abutting gasket 5 on the buffering section 22 and abuts against the inner gasket 33 and the abutting gasket 5, the pre-pressing force of the spring 6 can be dispersed and evenly applied to the buffering section 22 by the inner gasket 33 and the abutting gasket 5, and the spring 6 can smoothly slide up and down and left and right together with the adapter 2 and the guiding sliding group 3 without excessive resistance. At this time, the inner gasket 33 and the abutting gasket 5 can ensure that the pre-pressing force of the spring 6 does not directly act on the guiding sliding group 3 to cause excessive resistance to make the sliding invalid, or make the spring 6 unevenly pre-press to cause the sliding element 31 or the spring 6 to be damaged.

[0057] On the other hand, in the direction towards one end of the through hole 120, the pre-pressing force of the spring 6 is transmitted to the abutting gasket 5 and then transmitted to the sliding gasket 8 through the convex part 51, so that the pre-pressing force is not transmitted to the fixed seat 1, but is transmitted to the sliding gasket 8 which is axially fixed on the adapter 2; thereby, the minimum radial force required to be overcome for radial sliding is greatly reduced, so that even when it is inconvenient to assemble in a comfortable posture, the radial sliding can still be triggered by the adapter 2 to effectively correct the axial eccentric tolerance and smoothly make the connector enter the mating position.

[0058] Therefore, by using the inner gasket 33 and the abutting gasket 5 on the adapter 2, the influence of the pre-pressing force of the spring 6 on the fixed seat 1 can be eliminated, and the resistance of radial sliding can be greatly reduced. In addition, the pre-pressing force provided by the spring 6 within a certain range can also make the adapter 2 bear the axial tolerance, and the slight inclination of the male connector A is also allowed, but the utility model is not limited thereto.

[0059] Meanwhile, the utility model can also have a elastic element 9 sleeved on the sleeving section 23, which is arranged between the outer surface of the closed end 12 of the fixed seat 1 and the sliding gasket 8 and adjacent to the sleeving section 23 of the adapter 2, and can be an element made of a material with elastic properties, such as an O-ring, an elastic washer, an elastic ring, etc. The sliding gasket 8 can compress the elastic element 9 to generate a positive force, so as to provide an elastic force to help the adapter 2 temporarily hover at any position in the radial space at any time. In some embodiments, the pre-pressing force of the spring 6 in the utility model is guided to the sliding gasket 8 by the convex part 51, and at this time, the radial sliding resistance of the adapter 2 can be adjusted more accurately by matching the elastic element 9, and the size of the radial sliding resistance can be controlled by the compression amount of the elastic element 9 or the selection of the material.

[0060] Therefore, the joint floating fixing seat structure improves the problem that the resistance is large when the conventional joint floating fixing seat slides in the radial direction, and the conventional fixing seat sliding is affected by the resistance to cause unstable structure and unstable butt joint, improves the risk that the sliding element of the conventional fixing seat is easily detached during joint engagement.

[0061] Please refer to Figure 6 and Figure 7 As shown in the figure, the fixing seat 1 as a fixing part of the fixed whole element can make the sliding element 31 and the guide seat 32 in the guide sliding group 3 can be adjusted in two directions (horizontal axis X and vertical axis Y) when the radial offset adjustment is needed relative to the adapter seat 2. As shown in Figure 6 The fixing seat 1 provides the offset adjustment of the sliding element 31 to the X direction. As shown in Figure 7 The guide seat 32 provides the offset adjustment of the adapter seat 2 to the Y direction. Through the offset adjustment provided by the guide sliding group 3, the axial inclination of the adapter seat 2 is avoided.

[0062] In summary, the adapter seat 2 can smoothly slide in the radial direction through the guide sliding group 3, and can be stably fixed in the fixing seat 1. In addition, the cooperation of the abutting gasket 5, the spring 6 and the sliding gasket 8 makes the pre-pressing force of the spring 6 supported therebetween be dispersed or offset, so that the risk of radial sliding function failure caused by excessive resistance is avoided. Therefore, the utility model effectively adjusts the butt joint position, and effectively provides the user with a stable hand feeling.

[0063] The above has described the utility model in detail, and the above is only a preferred embodiment of the utility model, and should not limit the range of the utility model. That is, any equivalent changes and modifications made according to the utility model should still belong to the patent coverage range of the utility model.

Claims

1. A joint floating mount structure, characterized by, The utility model relates to a connector, which comprises a fixed seat with an accommodating space inside, an open end and a closed end respectively arranged at two ends of the fixed seat, the accommodating space being located between the open end and the closed end, the closed end being provided with a through hole, the open end being provided with an opening, the opening being communicated with the through hole through the accommodating space, a connecting seat with a connecting section, a sleeve section and a buffer section connecting the sleeve section and the connecting section, the sleeve section extending out of the through hole through the opening and the accommodating space, the buffer section being located in the accommodating space, the connecting section being located outside the opening, a guide sliding group movably arranged in the accommodating space of the fixed seat and sleeved with the buffer section, the guide sliding group comprising a sliding element slidably arranged in the accommodating space and provided with a sliding groove for the buffer section to pass through, the sliding element being provided with a sliding channel corresponding to the opening of the open end of the fixed seat, a guide seat passing through the opening and slidably arranged in the sliding channel and sleeved with the buffer section, so that the connecting seat can move up and down along the sliding channel, a stop pad sleeved with the buffer section and arranged in the accommodating space, the stop pad being located between the guide sliding group and the closed end, and a spring sleeved with the buffer section and arranged in the accommodating space, the spring being located between the guide sliding group and the stop pad. The sliding element is provided with an inner pad sliding groove corresponding to the closed end of the fixed seat, and the guide sliding group further comprises an inner pad sleeved with the buffer section and arranged in the accommodating space, the inner pad being slidably arranged in the inner pad sliding groove. Further comprising a sliding pad sleeved with the sleeve section. Further comprising a fixed element sleeved with the sleeve section, the sliding pad being located between the fixed element and the closed end. Further comprising an elastic element sleeved with the sleeve section, the elastic element being located between the sliding pad and the closed end. The stop pad comprises a protrusion extending through the through hole, and the protrusion abuts against the sliding pad. The open end of the fixed seat is provided with a lower notch communicated with the opening and the accommodating space, and the guide seat further comprises a guide block extending out of the fixed seat through the lower notch, the guide block being provided with a guide hole into which a guide post can be inserted, the movement of the connecting seat being guided by inserting the guide post into the guide hole. The buffer section comprises an outer buffer section adjacent to the opening and an inner buffer section away from the opening, the inner pad, the stop pad and the spring being arranged on the inner buffer section, the guide sliding group being arranged on the outer buffer section, and a gap being formed between the sliding element and the inner pad. The outer diameter of the outer buffer section is greater than the outer diameter of the inner buffer section, so that a step surface is formed between the outer buffer section and the inner buffer section, the step surface being capable of limiting the position of the inner pad on the inner buffer section. The accommodating space of the fixed seat is provided with a sliding surface on which the sliding element slides, and the sliding surface and the step surface are not located in the same plane.

2. The jumper float mount structure of claim 1, wherein ​ ​ 3. The jumper float mount structure of claim 1, wherein ​ ​ 4. The jumper float mount structure of claim 3, wherein ​ ​ 5. The jumper float mount structure of claim 3, wherein ​ ​ 6. The jumper float mount structure of claim 3, wherein: ​ 7. The jumper float fixture structure of claim 1, wherein: ​ ​ 8. The jumper float mount structure of claim 2, wherein: ​ 9. The jumper float fixture structure of claim 8, wherein: ​ 10. The jumper float mount structure of claim 9, wherein: ​

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