Quick release structure of microphone and shockproof stand

Abstract

This application provides a quick-release structure for a shock mount and microphone, including a microphone body, a shock mount body, and a locking assembly. The microphone body has a positioning assembly; the shock mount body has an attachment positioning assembly corresponding to the positioning assembly. The microphone body is positioned and installed on the shock mount body via the positioning assembly and the attachment positioning assembly. After the microphone body is positioned and installed on the shock mount body, the locking assembly detachably locks the microphone body onto the shock mount body.

Description

Technical Field

[0001] This application relates to the field of microphone technology, and more particularly to a quick-release structure for a microphone and shock mount. Background Technology

[0002] A microphone is a device that converts sound signals into electrical signals, widely used in indoor recording, live streaming, calls, and conferences. In professional recording, live streaming, and live performances, microphones are typically mounted on stands using shock mounts to isolate external vibrations and noise. However, traditional microphone and shock mount mounting methods are sometimes unstable, easily slipping and damaging the microphone, or causing the microphone to wobble and alter its received signal if the shock mount is moved. Other methods, while stable, require high locking force, making installation and disassembly cumbersome, requiring alignment and tightening of screws or forceful prying of clamps. This is inefficient in scenarios requiring frequent microphone replacements and may wear down the microphone's paint finish over time. Therefore, existing technology needs a mounting solution that allows for quick installation and disassembly while ensuring the microphone is securely stable and has strong anti-interference capabilities after installation. Summary of the Invention

[0003] This application provides a quick-release structure for a shock mount and a microphone, enabling rapid installation and disassembly of the shock mount and microphone, and providing a secure, stable, and interference-resistant solution after installation. A quick-release structure for a shock mount and microphone includes a microphone body, a shock mount body, and a locking assembly. The microphone body is provided with a positioning assembly; the shock mount body is provided with an attachment positioning assembly corresponding to the positioning assembly. The microphone body is positioned and installed on the shock mount body by the positioning assembly corresponding to the attachment positioning assembly. After the microphone body is positioned and installed on the shock mount body, the locking assembly detachably locks the microphone body onto the shock mount body.

[0004] Furthermore, the locking assembly includes at least one first fixing structure and at least one second fixing structure. The at least one first fixing structure is disposed on the microphone body, and the second fixing structure is disposed on the shock mount body. The at least one first fixing structure is detachably connected to the at least one second fixing structure by means of a snap-fit, so that the microphone can be detachably disposed on the shock mount. The positioning assembly is at least one first magnetic suction member, and the attachment positioning assembly is at least one second magnetic suction member. The at least one first magnetic suction member and the second magnetic suction member magnetically cooperate to position the microphone on the shock mount.

[0005] Furthermore, the second fixing structure includes an operating member and a locking member. When the operating member is operated, it drives the locking member to move, causing the locking member to switch between a locked state connected to the microphone latch and an unlocked state detached from the microphone.

[0006] Furthermore, the shock absorber body has a first mounting hole, and the second fixing structure further includes a reset member. The reset member is connected between the operating member and the hole wall of the first mounting hole. When the operating member is operated to drive the locking member to move, the reset member is compressed. When the operating member is stopped, the reset member releases its elastic force to drive the operating member to reset.

[0007] Furthermore, the shockproof frame body includes a frame and a bottom frame connected to the bottom of the frame, the bottom frame and the frame forming a mounting cavity, and the microphone body is disposed in the mounting cavity; the second fixing structure also includes a fixing frame and a mounting shaft, the fixing frame is fixed on the bottom frame, and the locking member is rotatably connected to the fixing frame through the mounting shaft.

[0008] Furthermore, the first fixing structure includes a fixing block mounted on the microphone body, and the locking member includes a hook for engaging with the fixing block and a force-receiving end connected to the hook. The fixing block includes a slot that engages with the hook. The force-receiving end includes an inclined surface. When the operating member is operated, it presses against the inclined surface to drive the locking member to move. When the operating member is operated, it drives the locking member to rotate around a preset axis to switch between a locked state and an unlocked state.

[0009] Furthermore, the number of the at least one first fixing structure and the at least one second fixing structure are both two, with the two first fixing structures located on opposite sides of the microphone body and the two second fixing structures located on opposite sides of the shock mount body.

[0010] Furthermore, the microphone body includes a housing assembly, a pickup assembly, a main circuit board, and a battery. The housing assembly forms a first storage cavity, and the pickup assembly, the main circuit board, and the battery are located in the first storage cavity. The pickup assembly and the battery are both electrically connected to the main circuit board, and the battery is used to power the main circuit board and the pickup assembly.

[0011] Further, the housing assembly includes a main shell, an inner shell, and a mesh cover. The main shell includes a base plate, two side plates connecting the two sides of the base plate, and a rear plate connecting the two side plates. The inner shell is disposed inside the main shell and includes a partition and a side wall connecting the partition. The partition divides the first storage cavity into a first storage portion located above and a second storage portion located below. The microphone assembly is disposed in the first storage portion. The mesh cover covers the microphone assembly. The upper part of the base plate, the rear plate, and at least one of the two side plates has an opening area so that the user's voice can enter the microphone assembly through the opening area and the mesh cover. The main circuit board is electrically connected to the microphone assembly through a first electrical connector passing through the inner shell.

[0012] Furthermore, the sidewall is arranged around at least a portion of the pickup assembly. The inner shell also includes two first support bars and two second support bars. The two first support bars are connected to the sidewall and extend toward the top of the microphone body. The two first support bars are located inside the two side plates and are respectively fixed to the lower parts of the two side plates. The two second support bars are located connected to the sidewall and extend toward the bottom of the microphone body. The two second support bars are located inside the two side plates and are respectively fixed to the upper parts of the two side plates. The inner shell also includes a connecting bar that connects between the two second support bars.

[0013] Furthermore, the main circuit board and battery are disposed in the second storage portion; the housing assembly also includes an outer cover, the microphone body also includes a first antenna, the rear plate has an opening corresponding to the area of ​​the main circuit board and the battery, the outer cover is connected to the rear plate and covers the opening, the first antenna is disposed on the side of the outer cover near the main housing; the first antenna is an FPC antenna, the main housing is made of metal, and the outer cover is made of non-metallic material; the outer cover includes a fixing plate and a rear cover, the fixing plate is connected to the bottom of the main housing, and the rear cover covers the opening; the first antenna is electrically connected to the main circuit board.

[0014] Furthermore, the sidewall and the partition form a second storage cavity. The microphone body also includes a pickup circuit board and a transformer disposed on the pickup circuit board. The pickup assembly includes a microphone bracket and a microphone mounted on the microphone bracket. The microphone bracket is disposed above the pickup circuit board. The pickup circuit board is fixed to the sidewall. The transformer is disposed in the second storage cavity. The pickup circuit board is electrically connected to the transformer and the microphone. The transformer is used to saturate and balance the audio signal acquired by the microphone to improve overload distortion. The inner shell is made of metal.

[0015] Furthermore, the microphone body also includes a first shielding member, which is disposed on the side of the partition near the second storage cavity; a sealing member is also disposed between the inner shell and the main shell, and the sealing member is arranged around the periphery of the side wall.

[0016] Furthermore, the mesh cover is located between the upper part of the inner shell and the upper part of the main shell; the pickup circuit board and the first shielding member are spaced apart and fixed to the inner shell by fasteners, and the transformer is located between the pickup circuit board and the first shielding member.

[0017] Furthermore, the microphone body also includes a second antenna. The first antenna and the second antenna are wireless antennas with the same preset frequency band. The first antenna is a proprietary protocol antenna for the preset frequency band, and the second antenna is a standard protocol antenna for the preset frequency band, which is the 2.4 GHz band. Both the first antenna and the second antenna conform to the Bluetooth communication protocol. The isolation between the first antenna and the second antenna is not less than 30 dB. The first antenna is used to transmit the audio signal acquired and processed by the microphone body to an external device, and the second antenna is used to interact with the external device through the standard protocol to transmit control signals. The control signals include background sound control signals; the second antenna is connected to the bottom of the main circuit board; the bottom of the main circuit board has a port assembly and a control switch, the port assembly and the control switch are used to expose the mounting plate for user use, the microphone body also includes a decorative plate, the decorative plate is disposed at the bottom of the mounting plate and has a clearance opening to avoid the port assembly and the control switch; the microphone body also includes at least one decorative strip, the at least one decorative strip is disposed in the middle and / or bottom of the main shell; the at least one decorative strip is gold foil, the main shell is provided with at least one groove, and the at least one decorative strip is disposed in the at least one groove by an adhesive.

[0018] Furthermore, the microphone body also includes a knob assembly. The substrate has a through hole, and the knob assembly is mounted on top of the main circuit board corresponding to the through hole. When the knob assembly is operated, it can trigger the main circuit board to generate a stepless adjustment signal or a switch trigger signal.

[0019] Furthermore, the knob assembly includes an encoder body disposed on the main circuit board, a button disposed above the encoder body, and a rotating component disposed around the button and above the encoder body. When the rotating component is rotated, it triggers the encoder body to generate the stepless adjustment signal. When the button is pressed, it triggers the encoder body to generate the switch trigger signal.

[0020] Furthermore, the button component includes a button body and an outer cover disposed above the button body. The button body and the outer cover are made of different materials, and the hardness of the outer cover is less than that of the button body. The outer cover is formed by a drip-resin process, and the button body is made of plastic.

[0021] Furthermore, a signal receiver is provided on the main circuit board, and the knob assembly is located above the signal receiver. The signal receiver is used to receive remote control signals from an external remote controller via the knob assembly, so that the main circuit board controls the microphone body according to the remote control signals.

[0022] Compared to existing technologies, the quick-release structure for a microphone and shock mount provided in this application uses positioning and attachment components to position the microphone body onto the shock mount body, and then uses a locking component to detachably lock the microphone body onto the shock mount body. This not only achieves quick and accurate positioning and installation of the microphone and shock mount, but also provides a secure and stable effect. When removing the microphone from the shock mount, it can be easily removed simply by releasing the locking component, significantly improving operational efficiency. The simple structure and convenient installation result in a superior user experience. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0024] Figure 1 This is a perspective view of a microphone mounted on a shock mount according to an embodiment of this application; Figure 2 This is a perspective view of the microphone installed on the shock mount according to an embodiment of this application from another angle; Figure 3 This is an exploded view of the microphone and shock mount provided in an embodiment of this application; Figure 4 This is an exploded view of the microphone and shock mount from another angle provided in an embodiment of this application; Figure 5 This is a cross-sectional view of a microphone mounted on a shock mount according to an embodiment of this application; Figure 6 This is an exploded view of the shock absorber frame provided in the embodiments of this application; Figure 7 This is an exploded view from another angle of the shock absorber frame provided in the embodiments of this application; Figure 8This is an exploded view of the second fixing structure provided in the embodiments of this application; Figure 9 This is an exploded view from another perspective of the second fixing structure provided in the embodiments of this application; Figure 10 This is a perspective view of the microphone provided in an embodiment of this application; Figure 11 This is a perspective view of the microphone provided in an embodiment of this application from another angle; Figure 12 This is an exploded view of the microphone provided in an embodiment of this application; Figure 13 This is an exploded view of the microphone provided in an embodiment of this application from another angle; Figure 14 This is a perspective view of the microphone concealed housing assembly provided in an embodiment of this application; Figure 15 This is a perspective view of the microphone concealed housing assembly provided in an embodiment of this application from another angle; Figure 16 This is a perspective view of the microphone knob assembly provided in an embodiment of this application; Figure 17 This is a perspective view of the microphone knob assembly provided in an embodiment of this application from another angle; Figure 18 This is an exploded view of the knob assembly of the microphone provided in an embodiment of this application; Figure 19 This is an exploded view of the microphone knob assembly provided in an embodiment of this application from another angle. Detailed Implementation

[0025] To facilitate understanding of this application, a more complete description will be provided below with reference to the accompanying drawings. Preferred embodiments of this application are shown in the drawings. However, this application can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and complete understanding of the disclosure of this application.

[0026] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly attached to the other element or there may be an intervening element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or there may be an intervening element. The terms "inner," "outer," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only possible implementation.

[0027] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs. The terminology used herein in the specification of this application is for the purpose of describing particular embodiments only and is not intended to be limiting of the application. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0028] Please see Figures 1-19 This application provides a quick-release structure for a microphone and a shock mount, including a microphone body 40, a shock mount body 21, and a locking assembly 502. The microphone body 40 is provided with a positioning assembly 60; the shock mount body 21 is provided with an attachment positioning assembly 23 corresponding to the positioning assembly 60. The microphone body 40 is positioned and installed on the shock mount body 21 by the positioning assembly 60 corresponding to the attachment positioning assembly 23. After the microphone body 40 is positioned and installed on the shock mount body 21, the locking assembly detachably locks the microphone body 40 onto the shock mount body 21.

[0029] Compared to existing technologies, the quick-release structure for microphone and shock mount provided in this application uses positioning component 60 and attachment positioning component 23 to precisely and accurately position the microphone body 40 onto the shock mount body 21. After initial positioning, locking component 502 securely locks the microphone body 40 to the shock mount body 21 in a detachable manner. This structure not only enables quick and precise positioning and installation between the microphone and shock mount, but also ensures the overall structure is very robust and stable after installation. When it is necessary to remove the microphone from the shock mount, the user only needs to release the locking component 502 to easily remove the microphone body 40 from the shock mount body 21. The entire process is simple and greatly improves the user's operational efficiency during installation and removal. This quick-release structure has a simple overall structure, without too many complex parts or cumbersome operating steps, and is easy to install. It effectively meets the user's need for quick assembly and disassembly of the microphone and shock mount, resulting in a better user experience.

[0030] Furthermore, the locking assembly 502 includes at least one first fixing structure 50 and at least one second fixing structure 22. The at least one first fixing structure 50 is disposed on the microphone body 40, and the at least one second fixing structure 22 is disposed on the shock mount body 21. The at least one first fixing structure 50 is detachably connected to the at least one second fixing structure 22 by a snap-fit ​​mechanism, allowing the microphone to be detachably mounted on the shock mount. The snap-fit ​​mechanism enables quick connection and separation between the microphone body and the shock mount body. During installation, the positioning assembly 60 is positioned on the shock mount body 21 corresponding to the attachment positioning assembly 23. The second fixing structure 22 is then aligned with the first fixing structure 50. The user only needs to apply slight pressure to snap the second fixing structure 22 onto the first fixing structure 50, without the need for additional tools. This convenient and efficient operation effectively solves the problems of cumbersome and inefficient installation steps caused by traditional screw locking or clamp prying methods. During disassembly, the first and second fixing structures can be easily separated by simply pressing the latch release mechanism or applying appropriate pulling force in the opposite direction, allowing for quick removal of the microphone. This is suitable for professional recording and live streaming scenarios that require frequent microphone changes, significantly improving work efficiency. Furthermore, the latch connection provides stable locking force when engaged, ensuring the microphone is securely mounted on the shock mount. This effectively prevents the microphone from slipping or shaking due to external vibrations or accidental contact, avoiding microphone damage and resulting signal reception issues. It balances the dual requirements of quick disassembly and secure, stable installation.

[0031] Furthermore, the shock mount body 21 includes a frame 211 and a bottom frame 212 connected to the bottom of the frame 211, the bottom frame 212 and the frame 211 forming the mounting cavity 20a. It can be understood that by having the frame 211 and the bottom frame 212 form the mounting cavity 20a, the microphone 30 can be better secured, vibration during microphone pickup can be reduced, and better sound pickup results can be achieved.

[0032] Further, please refer to Figures 10 to 13The positioning component is at least one first magnetic attractor, and the attachment positioning component is at least one second magnetic attractor. The at least one first magnetic attractor and the second magnetic attractor magnetically cooperate to position the microphone body 40 on the shock mount body 21. The first magnetic attractor is located at the bottom of the microphone body 40 (e.g., the bottom of the housing assembly 41), and the second magnetic attractor is located on the bottom frame. Specifically, at least one first magnetic attractor is provided at the bottom of the microphone body 40 as a positioning component 60, and at least one second magnetic attractor is correspondingly provided on the bottom frame 212 of the shock mount body 21 as an attachment positioning component 23. When the user needs to install the microphone, they only need to bring the bottom of the microphone body 40 close to the bottom frame 212 of the shock mount, and a magnetic attraction will be generated between the first magnetic attractor and the second magnetic attractor. This magnetic cooperation can quickly guide the microphone body 40 to move automatically to the correct installation position and initially attract and position it, realizing rapid guidance and pre-fixation during the installation process, avoiding the trouble of repeatedly aligning holes or clips in traditional installation methods, and significantly improving the convenience and accuracy of positioning. Under the influence of magnetism, the microphone body 40 can quickly establish a preliminary positioning relationship with the shock mount body 21, laying the foundation for the locking step of the locking component 502 and ensuring a smooth and efficient installation process. Simultaneously, the magnetic positioning method prevents physical compression or friction on the microphone body 40's outer shell, effectively protecting the paint finish and preventing potential wear from long-term use. The stable placement of the microphone on the shock mount also improves the microphone's sound pickup performance. Furthermore, the magnetic structure at the bottom, in conjunction with the first fixing structure 50 and the second fixing structure 22 on both sides, allows for better fixation of the microphone 30 from different angles. The number of the first and second magnetic components can be set according to actual needs; this embodiment primarily uses two of each as an example.

[0033] Furthermore, there are two of each of the at least one first fixing structure 50 and the at least one second fixing structure 22. The two first fixing structures 50 are located on opposite sides of the microphone body 40, and the two second fixing structures 22 are located on opposite sides of the shock mount 20. It can be understood that the two first fixing structures 50 and the two second fixing structures 22 arranged opposite to each other can ensure the stability of the connection between the microphone 30 and the shock mount 20.

[0034] Furthermore, such as Figures 3-4As shown, a hollow mounting post 20b is provided at the bottom of the mounting cavity 20a formed by the frame 211 and the bottom frame 212. The length extension direction of the mounting post 20b faces the direction in which the microphone 30 is installed. The top of the mounting post 20b is provided with a mounting opening 20c. The second magnetic suction member is disposed inside the mounting post 20b. When the microphone body is pre-installed on the shockproof frame body, the second magnetic suction member attracts the first magnetic suction member into the mounting post 20b through the mounting opening 20c. The second magnetic suction member can be a hollow magnetic cylinder, which is set close to the inner wall of the mounting post 20b. The mounting post 20b has a magnetic suction mounting hole for the second magnetic suction member in the middle. The first magnetic suction member is attracted into the magnetic suction mounting hole through the second magnetic suction member. The first magnetic suction member is a magnetic cylinder, and the diameter of the magnetic cylinder is smaller than the diameter of the hollow magnetic cylinder. Of course, the second magnetic component can also be a magnetic cylinder installed at the bottom of the hollow mounting post 20b, attracting the first magnetic component into the mounting post 20b. However, it is preferred that the first magnetic component be a magnetic cylinder, and the second magnetic component be a hollow magnetic tube. This is because it allows the first magnetic component to be more stably embedded and attracted into the mounting post 20b, reducing microphone body shaking caused by magnetic position deviation. Specifically, when the hollow magnetic tube is set close to the inner wall of the mounting post 20b, it forms an adsorption space inside that matches the diameter of the first magnetic component (magnetic cylinder). Under the action of magnetic force, the first magnetic component will naturally move towards the center of the hollow magnetic tube and embed itself, thereby achieving circumferential positioning and preventing the microphone body from rotating or shifting in the horizontal direction. At the same time, the mounting opening 20c at the top of the mounting post 20b also guides the embedding of the first magnetic component, ensuring that the first magnetic component can accurately and smoothly enter the mounting post 20b, further improving the positioning accuracy and stability. This structure ensures good stability of the microphone body during the initial positioning stage, providing a more reliable foundation for the subsequent snap-fit ​​connection of the locking components and effectively preventing the microphone body from shifting during the locking process and affecting the installation effect.

[0035] Furthermore, the shock mount 20 also includes a pop filter 213 mounted on the frame 211 and a connecting assembly 214 connecting the frame 211. The connecting assembly 214 is used for detachable connection with an external device (such as an external bracket or base). In this embodiment, the connecting assembly 214 is used for detachable and rotatable connection with the external device to adjust the angle between the microphone and the shock mount. It can be understood that by setting the pop filter 213, the impact of droplets on the microphone 30's sound pickup can be reduced, further improving the sound pickup effect.

[0036] Please see Figures 5 to 9In this embodiment, each second fixing structure 22 includes an operating member 221 and a locking member 222. When the operating member 221 is operated, it drives the locking member 222 to move, causing the locking member 222 to switch between a locked state where it is snapped into the microphone 30 and an unlocked state where it is detached from the microphone 30. It can be understood that the operating member 221 and the locking member 222 allow the user to easily snap the microphone 30 into or detach it from the shock mount 20, and the locked state also ensures the stability of the connection between the two.

[0037] Specifically, the shock absorber body 21 has a first mounting hole 21a, and each second fixing structure 22 further includes a reset member 223. The reset member 223 is connected between the operating member 221 and the wall of the first mounting hole 21a. When the operating member 221 is operated to drive the locking member 222 to move, the reset member 223 is compressed. When the operation of the operating member 221 is stopped, the reset member 223 releases its elastic force to drive the operating member to reset. It can be understood that the reset member 223 can release its elastic force to drive the operating member 221 to reset, which not only simplifies the structure but also facilitates the switching between the locked and unlocked states, resulting in a better user experience.

[0038] Furthermore, each second fixing structure 22 also includes a fixing frame 224 and a mounting shaft 225. The fixing frame 224 is fixed to the bottom frame 212, and the locking member 222 is rotatably connected to the fixing frame 224 via the mounting shaft 225. It can be understood that the mounting shaft 225 ensures the movable connection between the second fixing structure 22 and the bottom frame 212, resulting in a simple structure, low cost, and ease of implementation.

[0039] The first fixing structure 50 includes a fixing block 51 mounted on the microphone body 40. The locking member 222 includes a hook 2221 for engaging with the fixing block 51 and a force-receiving end 2222 connecting the hook 2221. The fixing block 51 includes a slot 51a that engages with the hook 2221. It can be understood that the hook 2221 and the slot 51a achieve the engaging engagement between the first fixing structure 50 and the second fixing structure 22, resulting in a simple structure, low cost, and ease of implementation. Furthermore, the first fixing structure 50 can be made of a non-slip and wear-resistant material different from the shell assembly of the microphone body 40, providing good non-slip and wear-resistant performance and effectively ensuring the detachable connection between the first fixing structure 50 and the second fixing structure 22.

[0040] Furthermore, the force-receiving end 2222 includes an inclined surface 2222a. When the operating member 221 is operated, it presses against the inclined surface 2222a to drive the locking member 222 to move. It can be understood that the design of the inclined surface 2222a enables the operating member 221 to press against the inclined surface 2222a to drive the locking member 222 to move when operated, resulting in a simple structure, low cost, and ease of implementation.

[0041] In this embodiment, when the operating member 221 is operated, it drives the locking member 222 to rotate around a preset axis D0 to switch between a locked state and an unlocked state. The preset axis D0 is the extension direction of the mounting shaft 225. It can be understood that through this rotational connection and drive, the structure is simple, the cost is low, and it is easy to implement.

[0042] Please see Figures 12-15 The microphone body 40 includes a housing assembly 41, a pickup assembly 42, a main circuit board 43, and a battery 44. The housing assembly 41 forms a first receiving cavity 41a. The pickup assembly 42, the main circuit board 43, and the battery 44 are located in the first receiving cavity 41a. The pickup assembly 42 and the battery 44 are both electrically connected to the main circuit board 43, and the battery 44 is used to supply power to the main circuit board 43 and the pickup assembly 42. It can be understood that the above design allows for a more rational internal component structure of the microphone 30, which is beneficial for product miniaturization and weight reduction.

[0043] Further, the housing assembly 41 includes a main shell 411, an inner shell 412, and a mesh cover 413. The main shell 411 includes a base plate 4111, two side plates 4112 connecting the two sides of the base plate 4111, and a rear plate 4114 connecting the two side plates 4112. The inner shell 412 is disposed inside the main shell 411. The inner shell 412 includes a partition 4121 and a side wall 4122 connecting the partition 4121. The partition 4121 holds the main shell 411 in place. The first storage cavity 41a is divided into a first storage portion 41b located at the top and a second storage portion 41c located at the bottom. The microphone assembly 42 is disposed in the first storage portion 41b, and the mesh cover 413 covers the periphery of the microphone assembly 42. The upper part of at least one of the substrate 4111, the rear plate 4114, and the two side plates 4112 has an opening area 411a so that the user's voice can enter the microphone assembly 42 through the opening area 411a and the multiple mesh holes of the mesh cover 413. The main circuit board 43 is electrically connected to the microphone assembly 42 through a first electrical connector 488 passing through the inner shell 412. The main shell 411, the inner shell 412, and the mesh cover 413 can all be made of metal, thereby ensuring the structural strength of the microphone 30 and also having a good texture.

[0044] The sidewall 4122 is arranged around at least part of the microphone assembly 42. The inner shell 412 also includes two first support bars 4123 and two second support bars 4124. The two first support bars 4123 are connected to the sidewall 4122 and extend toward the top of the microphone body 40. The two first support bars 4123 are located inside the two side plates 4112 and are fixed to the lower part of the two side plates 4112 respectively to increase the structural strength of the main shell 411. The two second support bars 4124 are located on both sides of the sidewall 4122 and extend toward the bottom of the microphone body 40. The two second support bars 4124 are located inside the two side plates 4112 and are fixed to the upper part of the two side plates 4112 respectively. The inner shell 412 also includes a connecting bar 4125, which is connected between the two second support bars 4124. The aforementioned inner shell 412 structural design ensures the structural strength of the microphone 30 while minimizing the weight of the shell assembly 41, which is beneficial for product miniaturization and weight reduction.

[0045] The main circuit board 43 and the battery 44 are disposed in the second storage portion 41c; the housing assembly 41 also includes an outer cover 414, the microphone body 40 also includes a first antenna 45, the rear plate 4114 has an opening 4114a in the area corresponding to the main circuit board 43 and the battery 44, the outer cover 414 is connected to the rear plate 4114 and covers the opening 4114a, the first antenna 45 is disposed on the side of the outer cover 414 near the main housing 411; the first antenna 45 is an FPC antenna, the main housing 411 is made of metal, and the outer cover 414 is made of non-metallic material; the outer cover 414 includes a fixing plate 4141 and a rear cover 4142, the fixing plate 4141 is connected to the bottom of the main housing 411, and the rear cover 4142 covers the opening 4114a. The outer cover 414 is made of a non-metallic material (such as plastic). It can be understood that the opening 4114a and the outer cover 414 can prevent the signal of the first antenna 45 from being shielded, and further ensure the structural strength of the housing assembly 41.

[0046] Furthermore, the first magnetic component can be mounted on the fixing plate 4141. Specifically, the fixing plate 4141 can be provided with a mounting groove for mounting the first magnetic component.

[0047] The sidewall 4122 and the partition 4121 form a second receiving cavity 412a. The microphone body 40 also includes a pickup circuit board 46 and a transformer 47 disposed on the pickup circuit board 46. The pickup assembly 42 includes a microphone bracket 421 and a microphone 422 mounted on the microphone bracket 421. The microphone bracket 421 is disposed above the pickup circuit board 46. The pickup circuit board 46 is fixed to the sidewall 4122. The transformer 47 is disposed within the second receiving cavity 412a. The pickup circuit board 46 is electrically connected to the transformer 47 and the microphone 422. The transformer 47 is used to saturate and balance the audio signal acquired by the microphone 422 to improve overload distortion. The inner shell 412 is also made of metal. Specifically, the even-order harmonics generated by the transformer 47 provide a better user experience. The transformer 47 can saturate and balance the audio signal acquired by the microphone 422 to improve overload distortion.

[0048] Furthermore, the microphone body 40 also includes a first shielding member 481, which is disposed on the side of the partition 4121 near the second receiving cavity 412a; a sealing member 489 is also disposed between the inner shell 412 and the main shell 411, and the sealing member 489 is arranged around the periphery of the side wall 4122. It can be understood that the first shielding member 481 prevents the signals of the transformer 47 and the pickup circuit board 46 from interfering with the signals of the main circuit board 43 below, thereby enabling the microphone 30 to achieve better sound pickup.

[0049] The mesh cover 413 is located between the upper part of the inner shell 412 and the upper part of the main shell 411. The mesh cover 413 protects the sound pickup component 42 and picks up sound. The position of the mesh cover 413 allows for a more compact assembly of the shell component 41, which is beneficial for product miniaturization.

[0050] The pickup circuit board 46 and the first shielding member 481 are spaced apart and fixed to the inner shell 412 by fasteners 486. The transformer 47 is located between the pickup circuit board 46 and the first shielding member 481. It can be understood that the design of the above structure can better shield and isolate the transformer 47 from the signals of the devices above and below, and improve signal interference.

[0051] The microphone body 40 also includes a second shielding member 482, which is disposed on the side of the partition 4121 near the main circuit board 43 and the battery 44. The microphone body 40 has a height direction H, a width direction W, and a thickness direction T. The first storage portion 41b and the second storage portion 41c are arranged along the height direction H, and the main circuit board 43 and the battery 44 are arranged along the thickness direction T. The thickness directions T of the main circuit board 43 and the battery 44 are also along the thickness direction T. Protective members 487, comprising EVA cotton, are also provided on both sides of the battery 44 along the thickness direction T. It can be understood that the second shielding member 482 can better shield and isolate the transformer 47 from the main circuit board 43 and the battery 44, improving signal interference. By setting the protective member 487, the battery 44 is also better protected, improving the safety performance of the product.

[0052] Furthermore, the microphone body 40 also includes an inner cover 71 disposed on the top of the inner shell 412, a top circuit board 72 disposed on the top of the inner cover 71, and a top cover 73 disposed above the top circuit board 72. The top circuit board 72 is provided with at least one control key 721, allowing the user to operate the at least one control key 721 via the top cover to control the microphone body. The at least one control key 721 includes at least one of a mute control key, a backlight control key, and a noise reduction control key. A first preset gesture applied to the mute control key enables control of the microphone 30's mute function; a second preset gesture applied to the noise reduction control key enables control of the noise reduction mute area; and a third preset gesture applied to the backlight control key enables control of the backlight color and / or brightness of the microphone 30's backlight component. It is understood that the at least one control key 721 facilitates user control of the microphone 30 and improves the user experience.

[0053] The microphone body 40 also includes a third shield 483, which is disposed between the inner cover 71 and the top circuit board 72. Furthermore, it can be understood that the third shield 483 can further isolate the pickup assembly 42 and the top circuit board 72, reducing signal interference between them.

[0054] In this embodiment, the materials of the first shielding member 481, the second shielding member 482, and the third shielding member 483 can be permalloy. It is understood that permalloy has good signal isolation properties, which can improve the sound pickup performance of the microphone 30.

[0055] The microphone body 40 further includes a second electrical connector 485, which connects the top circuit board 72 and the pickup circuit board 46. The microphone body 40 also includes a shielding cover 484, located between the mesh cover 413 and the inner shell 412. The second electrical connector 485 is located on the side of the shielding cover 484 away from the inner shell 412. A groove 412b is provided on the surface of the inner shell 412 near the shielding cover 484, and the shielding cover 484 is located within the groove 412b. The second electrical connector 485 can be an FPC cable, and the connection end of the FPC cable can have a connector for mating with another connector.

[0056] In this embodiment, the microphone body 40 further includes a second antenna 49. The first antenna 45 and the second antenna 49 are wireless antennas with the same preset frequency band. The first antenna 45 is a proprietary protocol antenna for the preset frequency band, and the second antenna 49 is a standard protocol antenna for the preset frequency band. The preset frequency band is the 2.4 GHz band, and both the first antenna 45 and the second antenna 49 conform to the Bluetooth communication protocol. The first antenna 45 is used to transmit the audio signal acquired and processed by the microphone body 40 to external devices (such as mobile phones, computers, sound cards, and other electronic devices). The second antenna 49 is used to interact with the external device through the standard protocol to transmit control signals. It can be understood that the microphone 30 is a wireless desktop microphone. By setting dual antennas in the same frequency band, not only can wireless transmission of audio signals be achieved, but it can also cooperate with external devices to realize other extended control functions, making it convenient for users and improving the user experience. The isolation between the first antenna 45 and the second antenna 49 is not less than 30 dB, which can prevent signal interference between the two antennas and improve the sound reception effect.

[0057] The control signal may include, but is not limited to, a background sound control signal; the second antenna 49 is connected to the bottom of the main circuit board 43; the bottom of the main circuit board 43 has a port assembly 431 and a control switch 432, the port assembly 431 and the control switch 432 are used to expose the fixing plate for user use, the microphone body 40 also includes a decorative plate 74, the decorative plate 74 is disposed at the bottom of the fixing plate 4141 and has an opening to avoid the port assembly 431 and the control switch 432. It can be understood that the above component placement design allows for a reasonable overall structural layout of the microphone 30 and minimizes interference between signals at different locations, resulting in better audio performance. It can be understood that there can be multiple port assemblies 431, which may include USB-type C port assemblies, audio monitoring interface assemblies (such as XLR interface assemblies). The control switch 432 can be the power button of the microphone 30.

[0058] The microphone body 40 also includes at least one decorative strip 75, which is disposed in the middle and / or bottom of the main shell 411. The at least one decorative strip 75 is gold foil, and the main shell 411 has at least one groove 411c. The at least one decorative strip 75 is adhered to the at least one groove 411c by an adhesive. It can be understood that the at least one decorative strip 75 can improve the product's appearance and texture, and enhance the user experience.

[0059] Further, please refer to Figures 16-19The microphone body 40 also includes a knob assembly 80. The substrate 4111 has a through hole 4111a. The knob assembly 80 is mounted corresponding to the through hole 4111a and disposed above the main circuit board 43. When the knob assembly 80 is operated, it can trigger the main circuit board 43 to generate a stepless adjustment signal or a switch trigger signal. The knob assembly 80 includes an encoder body 81 disposed on the main circuit board 43, a button 82 disposed above the encoder body 81, and a rotating member 83 disposed around the button 82 and above the encoder body 81. When the rotating member 83 is rotated, it triggers the encoder body 81 to generate the stepless adjustment signal. When the button 82 is pressed, it triggers the encoder body 81 to generate the switch trigger signal. It can be understood that the knob assembly 80 described above can realize stepless adjustment and switch trigger control, with a simple structure and easy implementation.

[0060] The button component 82 may include a button body 821 and an outer cover 822 disposed above the button body 821. The button body 821 and the outer cover 822 are made of different materials, with the outer cover 822 having a lower hardness than the button body 821. The outer cover 822 is formed using a drip-resin process, while the button body 821 is made of plastic. It can be understood that the above material and process design maintains the structural strength of the button component 82 while also providing the user with a better tactile feel and improving the user experience.

[0061] Further, the rotating component 83 includes a knob body 831 and a light guide connector 832 disposed below the knob body 831. The main circuit board 43 is also provided with a first light-emitting component 841, which emits light toward the light guide connector 832, causing the light guide connector 832 to emit light. The light guide connector 832 is installed in the through hole 4111a and at least partially exposed outside the main shell 411. The light guide connector 832 includes an inner ring wall 8321, an outer ring wall 8322, and a connecting portion 8323 connected to one end of the inner ring wall 8321 and the outer ring wall 8322. The first light-emitting component 841 is used to emit light toward the gap between the inner ring wall 8321 and the outer ring wall 8322. The knob assembly 80 also includes a light-shielding component 85, which is arranged around the outer ring wall 8322 near the lower periphery of the main circuit board 43. By setting the light guide connector 832, the bottom of the rotating part 83 can emit light, forming a floating knob effect, which improves the user experience. Furthermore, by setting the light shield 85, the light emitted by the first light-emitting part 841 can be prevented from leaking to other positions, thus improving the visual effect.

[0062] The knob assembly 80 also includes an elastic element 87, which abuts against the button 82 and the main circuit board. When the button 82 is pressed, the main circuit board 43 is triggered to generate a control signal, at which point the elastic element 87 is compressed and stores force. When the button 82 is released from pressure, the elastic element 87 releases its elastic force, thereby driving the button 82 to reset. Specifically, the button 82 may be provided with a second mounting hole 821a, and the elastic element 87 is installed in the second mounting hole 821a of the button 82. It can be understood that the button 82 and the elastic element 87 can realize the pressing control and reset functions of the knob assembly 80, which has a simple structure, is easy to implement, and provides a high level of user experience.

[0063] A signal receiver 86 is provided on the main circuit board 43, and the knob assembly 80 is located above the signal receiver 86. The signal receiver 86 is used to receive remote control signals from an external remote control via the knob assembly 80, so that the main circuit board 43 controls the microphone 30 according to the remote control signals. The signal receiver 86 can be an infrared signal receiver. The main circuit board 43 may further be provided with a second light-emitting element 842, which can emit light towards the button 82, so that the button 82 has a light-emitting effect, forming a light-emitting button for convenient user operation.

[0064] The technical features of the embodiments described above can be combined arbitrarily. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as the combination of these technical features does not contradict each other, it should be considered within the scope of this specification. The embodiments described above only illustrate several implementation methods of this application, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the patent application. It should be noted that those skilled in the art can make several modifications and improvements without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the protection scope of this patent application should be determined by the appended claims.

Claims

1. A quick release structure of a microphone and a shock mount, characterized in that, include A microphone body, wherein a positioning component is provided on the microphone body; The shock mount body is provided with an attachment positioning component corresponding to the positioning component. The microphone body is positioned and installed on the shock mount body by the positioning component corresponding to the attachment positioning component. The locking assembly secures the microphone body to the shock mount body after it has been positioned and installed on the shock mount body.

2. The quick-release structure for the microphone and shock mount according to claim 1, characterized in that, The locking assembly includes at least one first fixing structure and at least one second fixing structure. The at least one first fixing structure is disposed on the microphone body, and the second fixing structure is disposed on the shock mount body. The at least one first fixing structure is detachably connected to the at least one second fixing structure by means of a snap-fit, so that the microphone can be detachably disposed on the shock mount. The positioning assembly is at least one first magnetic suction member, and the attachment positioning assembly is at least one second magnetic suction member. The at least one first magnetic suction member and the second magnetic suction member magnetically cooperate to position the microphone on the shock mount.

3. The quick-release structure for the microphone and shock mount according to claim 2, characterized in that, The second fixing structure includes an operating member and a locking member. When the operating member is operated, it drives the locking member to move, so that the locking member switches between a locked state connected to the microphone latch and an unlocked state detached from the microphone.

4. The quick-release structure for the microphone and shock mount according to claim 3, characterized in that, The shock absorber body has a first mounting hole, and the second fixing structure further includes a reset member. The reset member is connected between the operating member and the hole wall of the first mounting hole. When the operating member is operated to drive the locking member to move, the reset member is compressed. When the operating member is stopped, the reset member releases its elastic force to drive the operating member to reset.

5. The quick-release structure for the microphone and shock mount according to claim 3, characterized in that, The shockproof frame body includes a frame and a bottom frame connected to the bottom of the frame. The bottom frame and the frame form a mounting cavity, and the microphone body is disposed in the mounting cavity. The second fixing structure also includes a fixing frame and a mounting shaft. The fixing frame is fixed on the bottom frame, and the locking member is rotatably connected to the fixing frame through the mounting shaft.

6. The quick-release structure for the microphone and shock mount according to claim 3, characterized in that, The first fixing structure includes a fixing block mounted on the microphone body. The locking member includes a hook for engaging with the fixing block and a force-receiving end connected to the hook. The fixing block includes a groove that engages with the hook. The force-receiving end includes an inclined surface. When the operating member is operated, it presses against the inclined surface to drive the locking member to move. When the operating member is operated, it drives the locking member to rotate around a preset axis to switch between a locked state and an unlocked state.

7. The quick-release structure for the microphone and shock mount according to claim 2, characterized in that, The number of the at least one first fixing structure and the at least one second fixing structure are both two, with the two first fixing structures located on opposite sides of the microphone body and the two second fixing structures located on opposite sides of the shock mount body.

8. The quick-release structure for the microphone and shock mount according to claim 1, characterized in that, The microphone body includes a housing assembly, a pickup assembly, a main circuit board, and a battery. The housing assembly forms a first storage cavity, and the pickup assembly, the main circuit board, and the battery are located in the first storage cavity. The pickup assembly and the battery are both electrically connected to the main circuit board, and the battery is used to power the main circuit board and the pickup assembly. The housing assembly includes a main shell, an inner shell, and a mesh cover. The main shell includes a base plate, two side plates connecting the two sides of the base plate, and a rear plate connecting the two side plates. The inner shell is disposed inside the main shell and includes a partition and a side wall connecting the partition. The partition divides the first storage cavity into a first storage portion located above and a second storage portion located below. The microphone assembly is disposed in the first storage portion. The mesh cover covers the microphone assembly. The upper part of the base plate, the rear plate, and at least one of the two side plates has an opening area so that the user's voice can enter the microphone assembly through the opening area and the mesh cover. The main circuit board is electrically connected to the microphone assembly through a first electrical connector passing through the inner shell. The sidewall is arranged around at least a portion of the pickup assembly. The inner shell also includes two first support bars and two second support bars. The two first support bars are connected to the sidewall and extend toward the top of the microphone body. The two first support bars are located inside the two side plates and are fixed to the lower parts of the two side plates respectively. The two second support bars are located connected to the sidewall and extend toward the bottom of the microphone body. The two second support bars are located inside the two side plates and are fixed to the upper parts of the two side plates respectively. The inner shell also includes a connecting bar that connects between the two second support bars. The main circuit board and battery are disposed in the second storage portion; the housing assembly also includes an outer cover, the microphone body also includes a first antenna, the rear plate has an opening corresponding to the area of ​​the main circuit board and the battery, the outer cover is connected to the rear plate and covers the opening, the first antenna is disposed on the side of the outer cover near the main housing; the first antenna is an FPC antenna, the main housing is made of metal, and the outer cover is made of non-metallic material; the outer cover includes a fixing plate and a rear cover, the fixing plate is connected to the bottom of the main housing, and the rear cover covers the opening; the first antenna is electrically connected to the main circuit board.

9. The quick-release structure for the microphone and shock mount according to claim 8, characterized in that, The sidewall and the partition form a second storage cavity. The microphone body also includes a pickup circuit board and a transformer disposed on the pickup circuit board. The pickup assembly includes a microphone bracket and a microphone mounted on the microphone bracket. The microphone bracket is disposed above the pickup circuit board. The pickup circuit board is fixed to the sidewall. The transformer is disposed in the second storage cavity. The pickup circuit board is electrically connected to the transformer and the microphone. The transformer is used to saturate and balance the audio signal acquired by the microphone to improve overload distortion. The inner shell is made of metal. The microphone body also includes a first shielding component, which is disposed on the side of the partition near the second storage cavity; a sealing component is also disposed between the inner shell and the main shell, and the sealing component is arranged around the periphery of the side wall; The mesh cover is located between the upper part of the inner shell and the upper part of the main shell. The pickup circuit board and the first shielding component are spaced apart and fixed to the inner shell by fasteners. The transformer is located between the pickup circuit board and the first shielding component.

10. The quick-release structure for the microphone and shock mount according to claim 8, characterized in that, The microphone body also includes a second antenna. The first antenna and the second antenna are wireless antennas with the same preset frequency band. The first antenna is a proprietary protocol antenna for the preset frequency band, and the second antenna is a standard protocol antenna for the preset frequency band, which is the 2.4 GHz band. Both the first antenna and the second antenna conform to the Bluetooth communication protocol. The isolation between the first antenna and the second antenna is not less than 30 dB. The first antenna is used to transmit the audio signal acquired and processed by the microphone body to an external device. The second antenna is used to interact with the external device through the standard protocol to transmit control signals. The signal includes a background sound control signal; the second antenna is connected to the bottom of the main circuit board; the bottom of the main circuit board has a port assembly and a control switch, the port assembly and the control switch are used to expose the fixing plate for user use, the microphone body also includes a decorative plate, the decorative plate is disposed at the bottom of the fixing plate and has a clearance opening to avoid the port assembly and the control switch; the microphone body also includes at least one decorative strip, the at least one decorative strip is disposed in the middle and / or bottom of the main shell; the at least one decorative strip is gold foil, the main shell is provided with at least one groove, and the at least one decorative strip is disposed in the at least one groove by an adhesive; The microphone body also includes a knob assembly. The substrate has a through hole. The knob assembly is installed corresponding to the through hole and is disposed above the main circuit board. When the knob assembly is operated, it can trigger the main circuit board to generate a stepless adjustment signal or a switch trigger signal. The knob assembly includes an encoder body disposed on the main circuit board, a button disposed above the encoder body, and a rotating component disposed around the button and above the encoder body. When the rotating component is rotated, it triggers the encoder body to generate the stepless adjustment signal. When the button is pressed, it triggers the encoder body to generate the switch trigger signal. The button component includes a button body and an outer cover disposed above the button body. The button body and the outer cover are made of different materials, and the hardness of the outer cover is less than that of the button body. The outer cover is formed by a drip-resin process, while the button body is made of plastic. A signal receiver is provided on the main circuit board, and the knob assembly is located above the signal receiver. The signal receiver is used to receive remote control signals from an external remote controller via the knob assembly, so that the main circuit board controls the microphone body according to the remote control signals.

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