A detachable live broadcast room

Abstract

The utility model provides a detachable live room relates to live room technical field, including first template and second template, first template and second template are formed riveting to the interference fit, cooperate under the docking assembly, make first template and second template cooperate through the inside integrated trigger drive structure and sliding butt joint structure, and the operator can automatically complete accurate butt joint and firm locking just by exerting pressure, the backward movement of stress stroke rod drives rack and pinion transmission, changes direction through bevel gear and screw rod transmission, drives the rotation of different inner tooth rotating ring, promotes three groups of butt joint column synchronous radial extension and inserts the corresponding interface, and the progressive design of incremental core column ensures the interference fit effect in the stroke end section, greatly enhances the tensile, shearing strength and structural integrity of the connection point, and provides excellent acoustic and optical sealing performance, effectively isolates external interference, anti vibration, impact under the connection state, safe and reliable.

Description

Technical Field

[0001] This utility model relates to the field of live streaming technology, and in particular to a detachable live streaming room. Background Technology

[0002] Live streaming is a real-time presentation via the internet. With the development of internet technology, live streaming has gained increasing attention, leading to its expanding commercial potential and the emergence of numerous companies and organizations, forming an industrialized model. Live streaming companies and teams need to conduct broadcasts centrally, requiring a separate studio for each streamer. However, soundproofing is a basic requirement for good broadcast quality, and providing a separate room for each streamer would be prohibitively expensive. While artificial partitioning using light steel frames, plaster, and cement can effectively utilize space and provide sound insulation, it is time-consuming and requires destructive demolition for relocation or other reasons, rendering the space unusable.

[0003] Currently, the construction of live streaming rooms often involves complex structures (such as numerous bolt connections) for stability, making disassembly and installation time-consuming and labor-intensive; while for convenience (such as using simple buckles or fabric), their stability, sound insulation, and anti-interference are very poor, making them easily affected by external factors during live streaming. Utility Model Content

[0004] The purpose of this utility model is to solve the problems in the existing technology where the construction structure is often complex, disassembly and installation are time-consuming and labor-intensive, and for the sake of convenience, its stability, sound insulation and anti-interference are very poor, and it is easily affected by the outside world during live broadcast. Therefore, a detachable live broadcast room is proposed.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a detachable live streaming room, including a first template and a second template, the first template and the second template are interference-fitted to form a riveting, and the first template and the second template are joined to form multiple layers, the surface of the second template is provided with a toothed groove, and the interior of the second template is provided with a docking component;

[0006] The docking assembly includes a force-bearing stroke rod, with an elastic docking component installed at the front end of the force-bearing stroke rod. A rack is installed at the bottom of the side end of the force-bearing stroke rod, and the rack and the toothed stroke groove are slidably connected. An incrementing part is provided at the side end of the force-bearing stroke rod, and an incrementing core is installed at the side end of the incrementing part. The force-bearing stroke rod, the rack, and the incrementing core form a trigger drive structure installed inside the first template. An outer frame is installed inside the second template. Three sets of sliding docking structures are arranged around the periphery of the outer frame. Each sliding docking structure consists of a sliding arc groove and a sliding block. A docking column is slidably connected inside the sliding docking structure along its stroke.

[0007] Preferably, the outer frame is rotatably connected to a toothed ring, and the bottom of the toothed ring is provided with threaded rod teeth.

[0008] Preferably, the internal gear swivel is connected to a threaded rod via a threaded rod tooth meshing connection. A bevel gear structure is sleeved on the side end of the threaded rod, and a driven gear is installed at the bottom of the bevel gear structure. The driven gear meshes with a rack.

[0009] Preferably, the passive gear is driven by the lateral stroke force of the rack, which causes the bevel gear structure to transmit force, thereby driving the rotation of the threaded rod and the internal gear ring, so that the mating column can be driven from the outside to the inside within the sliding mating structure.

[0010] Preferably, the first template has a sliding groove for the force-bearing stroke rod on its side, and the second template has a mating groove on its surface facing the incremental core column.

[0011] Preferably, the side end of the incremental core column is provided with an incremental boss edge.

[0012] Preferably, the top of the first template is provided with a reinforcing rib limiting groove.

[0013] Compared with the prior art, the advantages and positive effects of this utility model are as follows:

[0014] In this invention, with the cooperation of the docking components, the first and second templates work together through the internally integrated trigger drive structure and sliding docking structure. Only unidirectional linear pressure needs to be applied by the operator to automatically complete precise docking and secure locking. During this process, the backward movement of the force-bearing stroke rod is transmitted through rack and pinion, then through bevel gear reversal and threaded rod transmission, ultimately driving the rotation of the differential internal gear ring. This causes the three sets of docking columns to extend radially synchronously and insert into the corresponding interfaces, forming a high-strength mechanical interlock. At the same time, the progressive design of the incremental core columns ensures an interference fit effect at the end of the stroke, greatly enhancing the tensile and shear strength and structural integrity of the connection point, and providing excellent acoustic and optical sealing performance, effectively isolating external interference. The entire mechanism has a reverse self-locking characteristic, is vibration-resistant and impact-resistant in the connected state, and is safe and reliable. Disassembly can be quickly separated by reverse operation with tools, greatly improving the efficiency of setting up and disassembling the live broadcast room and saving manpower and time costs. Attached Figure Description

[0015] Figure 1 A schematic diagram of a detachable three-dimensional structure in a live streaming room is provided for this utility model;

[0016] Figure 2 This utility model provides a schematic diagram of the detachable main body of a live streaming room.

[0017] Figure 3This utility model provides a structural separation diagram of a detachable docking component in a live streaming room;

[0018] Figure 4 This utility model proposes a detachable live streaming room Figure 3 A magnified structural diagram at point A.

[0019] Legend: 100, First template; 200, Second template; 300, Reinforcing rib limiting groove; 400, Connecting assembly; 401, Force-bearing stroke rod; 402, Rack; 403, Increasing core column; 404, Outer frame; 405, Connecting column; 406, Sliding connecting structure; 407, Driven gear; 408, Bevel gear structure; 409, Threaded rod; 410, Different internal gear swivel ring; 500, Force-bearing stroke rod sliding groove. Detailed Implementation

[0020] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described below with reference to the accompanying drawings and embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0021] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the present invention is not limited to the specific embodiments disclosed in the following specification.

[0022] In this embodiment, as Figure 1-4 As shown, this utility model provides a detachable live streaming room, including a first template 100 and a second template 200. The first template 100 and the second template 200 are interference-fitted to form a riveting, and the first template 100 and the second template 200 form multiple layers after being joined. The surface of the second template 200 is provided with a toothed groove, and the interior of the second template 200 is provided with a docking component 400.

[0023] The docking assembly 400 includes a force-bearing stroke rod 401, with an elastic docking component mounted at its front end. A rack 402 is mounted at the bottom side of the force-bearing stroke rod 401, and the rack 402 is slidably connected to a toothed groove. An incrementing section is provided at the side end of the force-bearing stroke rod 401, and an incrementing core 403 is mounted at the side end of the incrementing section. The force-bearing stroke rod 401, rack 402, and incrementing core 403 form a trigger drive structure installed inside the first template 100. An outer frame 404 is installed inside the second template 200. Three sets of sliding docking structures 406 are arranged around the periphery of the outer frame 404. Each sliding docking structure 406 consists of a sliding arc groove and a sliding block. A docking post 405 is slidably connected inside the sliding docking structure 406 along its stroke. A rotatable internal tooth ring 410 is rotatably connected inside the outer frame 404, and threaded rod teeth are provided at the bottom of the rotatable internal tooth ring 410. The internal gear swivel ring 410 is connected to a threaded rod 409 via threaded rod teeth. A bevel gear structure 408 is sleeved on the side end of the threaded rod 409, and a driven gear 407 is installed at the bottom of the bevel gear structure 408. The driven gear 407 meshes with a rack 402. The driven gear 407 is driven by the lateral stroke force of the rack 402, which causes the bevel gear structure 408 to transmit force, thereby driving the rotation of the threaded rod 409 and the internal gear swivel ring 410, so that the mating column 405 is driven from the outside to the inside within the sliding mating structure 406. First, the operator initially aligns the first template 100 and the second template 200, bringing their mating edges closer together. At this time, the trigger drive structure inside the first template 100 (composed of a force-bearing stroke rod 401, a rack 402, and an incremental core column 403) and the outer frame 404 and sliding mating structure 406 inside the second template 200 are all in an initial untriggered state. Then, a mating force is applied. The operator continues to push the first template 100 toward the second template 200, applying pressure perpendicular to the mating surface of the second template 200. This pressure is transmitted to the force-bearing stroke rod 401, causing it to slide backward inside the first template 100 in the opposite direction to the mating surface of the second template 200 after contacting the mating surface of the second template 200. Since the rack 402 is fixed to the bottom of the side end of the force-bearing stroke rod 401 and meshes with the toothed groove on the surface of the second template 200, the linear motion of the force-bearing stroke rod 401 is converted into precise sliding of the rack 402 within the toothed groove. Then, the transmission system is triggered. The lateral movement of the rack 402 drives the driven gear 407, which meshes with it, to rotate. The rotation of the driven gear 407 reverses the power direction by 90 degrees through the bevel gear structure 408, thereby driving the threaded rod 409 to rotate. The threaded rod 409 engages with the threaded rod teeth at the bottom of the internal gear ring 410, causing the internal gear ring 410 to rotate smoothly inside the outer frame 404. Then, the docking lock is performed.The rotation of the internal gear ring 410, through its special internal tooth profile or cam surface, drives the three sets of circumferentially surrounding sliding docking structures 406 to move. Specifically, the mechanism (such as a curved groove) fixed on the internal gear ring 410 pushes the sliding block in the sliding docking structure 406, causing it to move radially from the outside to the inside along a preset sliding arc groove trajectory. The movement of the sliding block ultimately pushes the docking post 405 to extend inward, and the end of the docking post 405 is then firmly inserted into or locked into the corresponding interface (such as a slot or hole) on the docking post. At the same time, the elastic docking part (such as a rubber head or spring plunger) at the front end of the force-bearing stroke rod 401 also contacts the corresponding point on the second template 200, forming a soft buffer and auxiliary seal. As the force-bearing stroke rod 401 moves, the incremental core post 403 gradually advances towards the second template 200 (the center end of the docking post 405). Its unique incremental contour design ensures that it can provide increasingly larger locking force at the end of the docking stroke, achieving an interference fit and forming a strong effect similar to riveting (that is, the incremental part on the side end of the force-bearing stroke rod 401 and the incremental boss edge on the side end of the incremental core post 403 make contact with each other, so that the interaction force increases non-linearly with the increase of the stroke, producing an interference fit effect, which not only provides additional locking force, but also plays a good sealing role). Finally, when all the docking posts 405 of the three sets of sliding docking structures 406 are in place, the first template 100 and the second template 200 are tightly and firmly connected together to form an integrated multi-layer plate structure. The multi-layer design not only provides good sound insulation and heat insulation performance, but its internal cavity can also be used for wiring or installing other equipment. During disassembly, simply reverse the operation (e.g., by rotating the threaded rod 409 in the reverse direction using a specific tool or by using the release mechanism) to reverse the movement of the entire linkage system, retract the docking column 405, and easily separate the two templates. The overall design achieves a high-strength, high-rigidity connection between the templates, effectively avoiding the problems of loosening in traditional bolt connections or insecure snap-fit ​​connections. The multi-layered structure, combined with the elastic docking components, forms excellent acoustic and optical seals, creating a stable and soundproof internal environment for the live streaming room. Furthermore, the entire docking process only requires applying linear pressure in one direction to automatically complete a series of complex locking actions, achieving one-click rapid docking. Disassembly is equally simple, greatly saving time and labor costs associated with setting up and disassembling the live streaming room.

[0024] like Figure 1-4As shown, the first template 100 has a sliding groove 500 for the force-bearing stroke rod on its side, and the second template 200 has a mating groove on its surface facing the incremental core column 403. The incremental core column 403 has an incremental boss edge on its side end. The top of the first template 100 has a reinforcing rib limiting groove 300. After the first template 100 and the second template 200 are mated, a reinforcing rib is inserted into the reinforcing rib limiting groove 300, so that the reinforcing rib limiting groove 300 on the top of the first template 100 matches the corresponding reinforcing rib of the second template 200, greatly enhancing the bending and torsional strength of the connection and preventing relative displacement or warping of the templates under stress. The connection is completed and self-locking occurs. When all mating columns 405 are fully in place and the incremental core column 403 has reached its maximum stroke, the system completes locking. Because the threaded rod 409 and the internal gear swivel ring 410 transmission pair have reverse self-locking characteristics, the entire connection will not be accidentally loosened under vibration or external impact, and the reliability is extremely high. When disassembling, it is only necessary to remove the reinforcing rib limiting groove 300 and release the restriction on the first template 100. After the elastic docking part (such as an elastic return spring or other elastic structure) at the front end of the force-bearing stroke rod 401 is released from restriction, the force-bearing stroke rod 401 is pushed in the opposite direction to perform the above-mentioned operation.

[0025] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any other way. Any person skilled in the art may make changes or modifications to the above-disclosed technical content to create equivalent embodiments for application in other fields. However, any simple modifications, equivalent changes, and modifications made to the above embodiments based on the technical essence of the present utility model without departing from the technical solution of the present utility model shall still fall within the protection scope of the technical solution of the present utility model.

Claims

1. A detachable live streaming room, characterized in that, It includes a first template (100) and a second template (200), the first template (100) and the second template (200) are interference-fitted to form a riveting, and the first template (100) and the second template (200) are joined to form a multi-layer structure, the surface of the second template (200) is provided with a toothed groove, and the interior of the second template (200) is provided with a docking component (400); The docking assembly (400) includes a force-bearing stroke rod (401), with an elastic docking component installed at the front end of the force-bearing stroke rod (401). A rack (402) is installed at the bottom of the side end of the force-bearing stroke rod (401), and the rack (402) is slidably connected to the toothed stroke groove. An incrementing part is provided at the side end of the force-bearing stroke rod (401), and an incrementing core column (403) is installed at the side end of the incrementing part. The force-bearing stroke rod (401), rack (402), and incrementing core column (403) form a trigger drive structure installed inside the first template (100). An outer frame (404) is installed inside the second template (200). Three sets of sliding docking structures (406) are arranged around the periphery of the outer frame (404). The sliding docking structure (406) is composed of a sliding arc groove and a sliding block. A docking column (405) is slidably connected inside the sliding docking structure (406) along its stroke.

2. The detachable live streaming room according to claim 1, characterized in that: The outer frame (404) is rotatably connected to a toothed ring (410), and the bottom of the toothed ring (410) is provided with threaded rod teeth.

3. The detachable live streaming room according to claim 2, characterized in that: The internal gear swivel (410) is connected to a threaded rod (409) by threaded rod teeth meshing. A bevel gear structure (408) is sleeved on the side end of the threaded rod (409). A driven gear (407) is installed at the bottom of the bevel gear structure (408). The driven gear (407) meshes with a rack (402).

4. The detachable live streaming room according to claim 3, characterized in that: The passive gear (407) is driven by the transverse stroke force of the rack (402), which causes the bevel gear structure (408) to transmit force, thereby driving the rotation of the threaded rod (409) and the internal gear ring (410), so that the docking column (405) can be driven from the outside to the inside inside the sliding docking structure (406).

5. The detachable live streaming room according to claim 1, characterized in that: The first template (100) has a sliding groove (500) for the force-bearing stroke rod on its side, and the second template (200) has a mating groove on its surface facing the incremental core column (403).

6. The detachable live streaming room according to claim 1, characterized in that: The incremental core (403) has an incremental boss edge on its side end.

7. The detachable live streaming room according to claim 1, characterized in that: The top of the first template (100) is provided with a reinforcing rib limiting groove (300).

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