Launching cabin of sonar, transformer module of launching cabin and assembling method of transformer module
By using pin jack connection and housing structure to hide the transformer in the sonar transmitter cabin, the problems of low efficiency and size limitation of circuit board-transformer connection in the prior art are solved, and more efficient and reliable assembly and improvement are achieved. Small overall size.
Patent Information
- Application Number
- CN202411675456.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-21
- Publication Date
- 2024-12-24
AI Technical Summary
The circuit board and transformer connection of the existing sonar transmitter cabin is through flying wire technology, resulting in low assembly efficiency, inconsistent solder joints, easy desoldering, and restricting the reduction of the cabin body size.
The pin of the transformer module is directly inserted into the jack of the transmitter circuit board for conduction and connection, and the direct conduction connection between the transmitter circuit board is achieved through the coupling or welding of the pin and the jack. The transformer is hidden by the shell and shell structure. Reduce overall size.
It improves assembly efficiency and reliability, ensures stable connection between the transmitting circuit boards, forms a stable rough cylindrical structure, matches the cabin shape, and avoids collision between the transformer and the module circuit board, enhancing the overall structural stability.
Smart Images

Figure CN119181563A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of underwater detection, and in particular to a sonar transmitting cabin and a transformer module and an assembly method thereof. Background Art
[0002] The launch cabin is a key component of the sonar. The core components of the launch cabin are the cabin and the launch circuit unit arranged in the cabin. The launch circuit unit is composed of a series of circuit boards and transformers. The connection between the two circuit boards and between the circuit board and the transformer is achieved through the flying wire technology. Taking the connection relationship between the circuit board and the transformer as an example, one end of a wire is soldered to the circuit board through solder paste, and the other end is soldered to the transformer through solder paste, so as to achieve the conductive connection between the circuit board and the transformer. There are many defects in the way of connecting the two circuit boards and connecting the circuit board and the transformer through the flying wire technology. For example, both opposite ends of the wire need to be soldered, resulting in low assembly efficiency, and the consistency of the solder joints is poor, which easily leads to the overall performance of the launch cabin. For example, in the process of installing the launch circuit unit in the cavity of the cabin, due to the narrow process of the cavity, the wire needs to be bent to be inserted into the cavity of the cavity. In the process of bending the wire and inserting the wire into the cavity of the cavity, the welding position of the wire and the circuit board and the wire and the transformer will be stressed and easily desoldering. At the same time, since the cavity of the cavity needs to reserve space for accommodating the wire, the size of the cabin cannot be further reduced. Summary of the invention
[0003] One object of the present invention is to provide a sonar transmitting cabin and its transformer module and assembly method, wherein the transformer module provides pins extending to the outside of the outer shell, and when assembling the transformer module and the transmitting circuit board, the pins of the transformer module are directly inserted into the jacks of the transmitting circuit board to achieve conductive connection between the transformer module and the transmitting circuit board.
[0004] One object of the present invention is to provide a sonar transmitting cabin and its transformer module and assembly method, wherein adjacent transmitting circuit boards are directly conductively connected, for example, adjacent transmitting circuit boards can be directly conductively connected by means of pins and sockets, or by means of welding.
[0005] In order to achieve at least one of the above purposes, the technical solution adopted by the present invention is to provide a transformer module, which includes: Multiple transformers; A module circuit board, wherein at least one transformer is disposed on opposite sides of the module circuit board, and the transformer is connected to the module circuit board; A shell, wherein the shell includes a left shell and a right shell, the left shell is arranged on the left side of the module circuit board, and the left shell covers the transformer located on the left side of the module circuit board, the right shell is arranged on the right side of the module circuit board, and the right shell covers the transformer located on the right side of the module circuit board, wherein the pins of the module circuit board extend to the outside of the shell through the gap between the left shell and the right shell.
[0006] As a further improvement of the technical solution of the present invention, two or more transformers are respectively arranged on opposite sides of the module circuit board, and on the same side of the module circuit board, one transformer and another transformer located above the transformer are arranged in a staggered manner.
[0007] As a further improvement of the technical solution of the present invention, the left shell and the right shell respectively have more than two independent receiving cavities, and the transformers arranged on the left side of the module circuit board are respectively received in the receiving cavities of the left shell, and the transformers arranged on the right side of the module circuit board are respectively received in the receiving cavities of the right shell.
[0008] As a further improvement of the technical solution of the present invention, the transformer has a notch, and the soldering point for soldering the transformer and the module circuit board is located in the notch of the transformer.
[0009] As a further improvement of the technical solution of the present invention, each of the transformers has a transformer through-hole, the module circuit board has a circuit board through-hole, and the left shell and the right shell have shell through-holes, respectively, wherein the position of the shell through-hole of the left shell, the position of the transformer through-hole of the transformer arranged on the left side of the module circuit board, the position of the circuit board through-hole of the module circuit board, the position of the transformer through-hole of the transformer arranged on the right side of the module circuit board and the position of the shell through-hole of the right shell correspond, wherein the transformer module further includes a locking unit, the locking unit includes a screw and a nut, and one end of the screw is screwed with the nut after passing through the shell through-hole of the right shell, the transformer through-hole of the transformer arranged on the right side of the module circuit board, the circuit board through-hole of the module circuit board, the transformer through-hole of the transformer arranged on the left side of the module circuit board and the shell through-hole of the left shell in sequence.
[0010] According to another aspect of the present invention, the present invention further provides a sonar launch cabin, which includes: Cabin; Unit bracket; A transmitting circuit unit, wherein the transmitting circuit unit includes a group of mutually connected transmitting circuit boards and transformer modules, the transformer module includes multiple transformers, a module circuit board and a shell, at least one transformer is respectively arranged on opposite sides of the module circuit board, and the transformer is connected to the module circuit board, the shell includes a left shell and a right shell, the left shell is arranged on the left side of the module circuit board, and the left shell covers the transformer located on the left side of the module circuit board, the right shell is arranged on the right side of the module circuit board, and the right shell covers the transformer located on the right side of the module circuit board, wherein the pins of the module circuit board extend to the outside of the shell through the gap between the left shell and the right shell, and the pins of the transformer module are inserted into the jacks of the transmitting circuit board, wherein the transmitting circuit board is mounted on the unit bracket, the unit bracket is mounted on the cabin, and the transmitting circuit unit is suspended in the cavity of the cabin.
[0011] According to another aspect of the present invention, the present invention further provides a method for assembling a transformer module, wherein the assembling method comprises the following steps: S1, at least one transformer is disposed on two opposite sides of a module circuit board, wherein the transformer is connected to the module circuit board; S2, when the left shell and the right shell of the shell are respectively arranged on the opposite sides of the module circuit board, the pins of the module circuit board are allowed to extend to the outside of the shell through the gap between the left shell and the right shell, wherein the left shell covers the transformer located on the left side of the module circuit board, and the right shell covers the transformer located on the right side of the module circuit board.
[0012] As a further improvement of the technical solution of the present invention, in step S1, more than two transformers are respectively arranged on opposite sides of the module circuit board, and on the same side of the module circuit board, one transformer and another transformer located above the transformer are arranged in a staggered manner.
[0013] As a further improvement of the technical solution of the present invention, in the step S1, the transformer and the module circuit board are welded in the notch of the transformer, so that the transformer is connected to the module circuit board.
[0014] As a further improvement of the technical solution of the present invention, in the step S1, the positions of the transformer perforations of the transformers are allowed to correspond to the positions of the circuit board perforations of the module circuit board, and the step S2 further includes the steps of: S2.1, allowing the left housing to be arranged on the left side of the module circuit board in a manner that the position of the housing through-hole of the left housing corresponds to the transformer through-hole of the transformer arranged on the left side of the module circuit board; S2.2, allowing the right housing to be arranged on the right side of the module circuit board in a manner such that the position of the housing through-hole of the right housing corresponds to the transformer through-hole of the transformer arranged on the right side of the module circuit board; S2.3, allowing one end of the screw of the locking unit to sequentially pass through the housing through-hole of the right housing, the transformer through-hole of the transformer disposed on the right side of the module circuit board, the circuit board through-hole of the module circuit board, the transformer through-hole of the transformer disposed on the left side of the module circuit board, and the housing through-hole of the left housing; S2.4, screwing a nut of the locking unit onto the end of the screw rod protruding from the left shell.
[0015] Compared with the prior art, the present invention has at least the following beneficial effects: 1. The transformer module provides a pin extending to the outside of the housing. When assembling the transformer module and the transmitting circuit board, the pin of the transformer module is directly inserted into the jack of the transmitting circuit board to achieve the conductive connection between the transformer module and the transmitting circuit board. Compared with the method of realizing the conductive connection between the transformer module and the transmitting circuit board through the flying wire technology, the conductive connection method of the transformer module and the transmitting circuit board of the present invention has higher assembly efficiency and more reliable assembly relationship; 2. The adjacent transmitting circuit boards are directly connected to each other. Compared with the method of realizing the connection between two adjacent transmitting circuit boards through the flying wire technology, the connection relationship between the adjacent transmitting circuit boards of the present invention is more reliable, especially in the process of assembling the transmitting circuit unit in the cabin of the cabin body, the connection relationship between the adjacent transmitting circuit boards will not be affected; 3. The extension directions of adjacent transmitting circuit boards can be perpendicular to each other, and adjacent transmitting circuit boards can be inserted. In this way, a plurality of transmitting circuit boards can form a stable roughly cylindrical structure that matches the shape of the cabin.
[0016] Other beneficial effects of the sonar launch cabin, its transformer module and assembly method of the present invention will be further disclosed and explained in the following description. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] Figure 1 It is a three-dimensional schematic diagram of a launch cabin according to a preferred embodiment of the present invention.
[0018] Figure 2 It is a cross-sectional schematic diagram of the launch cabin according to the above-mentioned preferred embodiment of the present invention.
[0019] Figure 3 It is a schematic diagram of an exploded view of the launch cabin according to the above preferred embodiment of the present invention from one perspective.
[0020] Figure 4 It is a schematic diagram of an exploded view of a launch circuit unit of the launch cabin according to the above preferred embodiment of the present invention from one perspective.
[0021] Figure 5 It is a schematic diagram of an exploded view from another perspective of the launch circuit unit of the launch cabin according to the above preferred embodiment of the present invention.
[0022] Figure 6 It is a three-dimensional schematic diagram of a transformer module of the transmitting circuit unit of the transmitting cabin according to the above preferred embodiment of the present invention.
[0023] Figure 7 It is a schematic diagram of an exploded view of the transformer module of the transmitting circuit unit of the transmitting cabin according to the above preferred embodiment of the present invention from one perspective.
[0024] Figure 8 It is a schematic diagram of an exploded view from another perspective of the transformer module of the transmitting circuit unit of the transmitting cabin according to the above preferred embodiment of the present invention.
[0025] Fig. 9 It is a schematic diagram of a local position of the transformer module of the transmitting circuit unit of the transmitting cabin according to the above preferred embodiment of the present invention.
[0026] Fig.10 It is a three-dimensional schematic diagram of one of the assembly steps of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0027] Fig.11 It is a three-dimensional schematic diagram of the second assembly step of the launch capsule according to the above-mentioned preferred embodiment of the present invention.
[0028] Fig.12 It is a three-dimensional schematic diagram of the third assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0029] Fig.13 It is a three-dimensional schematic diagram of the fourth assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0030] Fig.14 and Fig.15They are respectively three-dimensional schematic diagrams of the fifth assembly step of the launch capsule according to the above preferred embodiment of the present invention.
[0031] Fig.16 It is a three-dimensional schematic diagram of the sixth assembly step of the launch capsule according to the above-mentioned preferred embodiment of the present invention.
[0032] Fig.17 and Fig.18 They are respectively three-dimensional schematic diagrams of the seventh assembly step of the launch capsule according to the above-mentioned preferred embodiment of the present invention.
[0033] Fig.19 and Fig. 20 They are respectively three-dimensional schematic diagrams of the eighth assembly step of the launch capsule according to the above preferred embodiment of the present invention.
[0034] Fig.21 It is a three-dimensional schematic diagram of the ninth assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0035] Fig. 22 It is a three-dimensional schematic diagram of the tenth assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0036] Fig.23 It is a three-dimensional schematic diagram of the eleventh assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0037] Fig.24 It is a three-dimensional schematic diagram of the twelfth assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0038] Fig.25 It is a three-dimensional schematic diagram of the thirteenth assembly step of the launch module according to the above-mentioned preferred embodiment of the present invention.
[0039] In the figure: 10. Cabin; 11. Cabin; 20. Unit bracket; 21. Bracket perforation; 30. Transmitting circuit unit; 31. Transmitting circuit board; 310. Socket; 311. Bottom circuit board; 3111. First bottom board insertion hole; 3112. Bottom board slot; 3113. Second bottom board insertion hole; 312. Top circuit board; 3121. Top board insertion hole; 3122. Top board slot; 313. First side circuit board; 3131. First bottom board insertion section; 3132. Top board insertion section; 3133. Side board insertion hole; 314. Second side circuit board; 3141. Bottom board protrusion; 3142. Top board protrusion; 315. Assembly column; 316. Third side circuit board Circuit board; 3161, second bottom plate insertion section; 3162, side plate insertion section; 317, accommodating cavity; 32, transformer module; 320, pin; 321, transformer; 3211, missing slot; 3212, transformer perforation; 322, module circuit board; 3221, circuit board perforation; 323, shell; 3230, accommodating cavity; 3231, left shell; 3232, right shell; 3233, shell perforation; 324, locking unit; 3241, screw; 3242, nut; 33, connecting circuit board; 331, first connecting end; 332, second connecting end. DETAILED DESCRIPTION
[0040] Before describing in detail any embodiment of the present invention, it should be understood that the present invention is not limited in its application to the construction and arrangement details of the components described below or illustrated in the following figures. The present invention can have other embodiments and can be practiced or carried out in various ways. In addition, it should be understood that the words and terms used here are for descriptive purposes and should not be considered restrictive. The use of "including" or "having" and its variations herein is intended to cover the items and their equivalents and additional items displayed below. Unless otherwise specified or limited, the terms "install", "connect", "support" and "couple" and their variations are widely used and cover direct installation and indirect installation, connection, support and connection. In addition, "connect" and "couple" are not limited to physical or mechanical connections or connections.
[0041] Furthermore, on the first aspect, in the disclosure of the present invention, the orientations or positional relationships indicated by terms such as “longitudinal”, “transverse”, “upper”, “lower”, “front”, “back”, “left”, “right”, “vertical”, “horizontal”, “top”, “bottom”, “inside” and “outside” are based on the orientations or positional relationships shown in the accompanying drawings, which are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation, and therefore the above terms cannot be understood as limitations on the present invention; on the second aspect, the term “one” should be understood as “at least one” or “one or more”, that is, in one embodiment, the number of an element may be one, while in another embodiment, the number of the element may be multiple, and the term “one” cannot be understood as a limitation on the quantity.
[0042] With reference to the accompanying drawings of the present invention Figures 1 to 25 A sonar transmitting cabin (hereinafter referred to as "transmitting cabin") according to a preferred embodiment of the present invention will be disclosed and explained in the following description, wherein the transmitting cabin includes a cabin body 10, a unit bracket 20 and a transmitting circuit unit 30, wherein the transmitting circuit unit 30 is mounted on the unit bracket 20, and the unit bracket 20 is mounted on the cabin body 10, and the transmitting circuit unit 30 is suspended by the unit bracket 20 in the cabin 11 of the cabin body 10. The transmitting circuit unit 30 is used to convert electrical energy into sound energy, so that the transmitting cabin emits a sound wave signal of a specific frequency and intensity.
[0043] The transmitting circuit unit 30 includes a group of transmitting circuit boards 31 and a transformer module 32. The adjacent transmitting circuit boards 31 are directly conductively connected. The transformer module 32 and at least one transmitting circuit board 31 are directly conductively connected. Compared with the conductive connection method of the transformer module 32 and the transmitting circuit board 31 achieved by flying wire technology, the conductive connection method of the transformer module 32 and the transmitting circuit board 31 of the present invention has higher assembly efficiency and a more reliable assembly relationship.
[0044] Specifically, a group of the transmitting circuit boards 31 includes a bottom circuit board 311, a top circuit board 312, a first side circuit board 313, a second side circuit board 314 and a plurality of assembly posts 315, wherein the bottom and top of each assembly post 315 are respectively mounted on the bottom circuit board 311 and the top circuit board 312, for example, screws can be used to mount the bottom of the assembly post 315 on the bottom circuit board 311 and to mount the top of the assembly post 315 on the top circuit board 312, wherein the bottom of the first side circuit board 313 is inserted into and directly conductively connected to the bottom circuit board 311, and the first side circuit board 313 is directly conductively connected to the bottom circuit board 311. The top of the second side circuit board 314 is inserted into and directly conductively connected to the top circuit board 312, wherein the bottom of the second side circuit board 314 is inserted into and directly conductively connected to the bottom circuit board 311, and the top of the second side circuit board 314 is inserted into and directly conductively connected to the top circuit board 312. In this way, on the one hand, the adjacent transmitting circuit boards 31 are directly conductively connected, and on the other hand, the adjacent transmitting circuit boards 31 are inserted, and the bottom circuit board 311, the top circuit board 312, the first side circuit board 313 and the second side circuit board 314 can form a stable roughly cylindrical structure that matches the shape of the cabin 10.
[0045] Reference Figures 3 to 5 The bottom circuit board 311 has at least one first bottom board insertion hole 3111, the top circuit board 312 has at least one top board insertion hole 3121, and the first side circuit board 313 has at least one first bottom board insertion section 3131 and at least one top board insertion section 3132. After the first bottom board insertion section 3131 of the first side circuit board 313 is inserted into the first bottom board insertion hole 3111 of the bottom circuit board 311, the bottom of the first side circuit board 313 and the bottom circuit board 311 are welded to conduct the circuit of the first side circuit board 313 and the bottom circuit board 311, so that the bottom of the first side circuit board 313 is inserted into and is directly conductively connected to the bottom circuit board 311, after the top plate insertion section 3132 of the first side circuit board 313 is inserted into the top plate insertion hole 3121 of the top circuit board 312, the top of the first side circuit board 313 and the top circuit board 312 are welded to conductively connect the circuit of the first side circuit board 313 and the circuit of the top circuit board 312, so that the top of the first side circuit board 313 is inserted into and is directly conductively connected to the top circuit board 312.
[0046] Specifically, the bottom circuit board 311 has two first bottom board insertion holes 3111 spaced apart from each other, the first side circuit board 313 has two first bottom board insertion sections 3131 spaced apart from each other, and each first bottom board insertion section 3131 of the first side circuit board 313 is respectively inserted into each first bottom board insertion hole 3111 of the bottom circuit board 311. The top circuit board 312 has two top board insertion holes 3121 spaced apart from each other, the first side circuit board 313 has two top board insertion sections 3132 spaced apart from each other, and each top board insertion section 3132 of the first side circuit board 313 is respectively inserted into each top board insertion hole 3121 of the top circuit board 312.
[0047] Continue to refer to the attached Figures 3 to 5 The bottom circuit board 311 has at least one bottom board slot 3112, the top circuit board 312 has at least one top board slot 3122, the second side circuit board 314 has at least one bottom board protrusion 3141 and at least one top board protrusion 3142, after the bottom board protrusion 3141 of the second side circuit board 314 is inserted into the bottom board slot 3112 of the bottom circuit board 311, the second side circuit board 314 and the bottom circuit board 311 are welded to connect the circuit of the second side circuit board 314 and the circuit of the bottom circuit board 311. The second side circuit board 314 is connected to the bottom circuit board 311 by means of a soldering iron, so that the bottom of the second side circuit board 314 is inserted into and directly conductively connected to the bottom circuit board 311. After the top plate protrusion 3142 of the second side circuit board 314 is inserted into the top plate slot 3122 of the top circuit board 312, the second side circuit board 314 and the top circuit board 312 are welded to conductively connect the circuit of the second side circuit board 314 and the circuit of the top circuit board 312. The top of the second side circuit board 314 is inserted into and directly conductively connected to the top circuit board 312.
[0048] Continue to refer to the attached Figures 3 to 5 , a group of the transmitting circuit boards 31 further includes a third side circuit board 316, the bottom of the third side circuit board 316 is inserted into and directly conductively connected to the bottom circuit board 311, and the side of the third side circuit board 316 is inserted into and directly conductively connected to the first side circuit board 313, so that the third side circuit board 316 can ensure the reliability of the insertion relationship between the first side circuit board 313 and the bottom circuit board 311, thereby further enhancing the structural stability of the transmitting circuit unit 30.
[0049] Specifically, the bottom circuit board 311 has a second bottom board insertion hole 3113, the first side circuit board 313 has a side board insertion hole 3133, and the third side circuit board 316 has a second bottom board insertion section 3161 and a side board insertion section 3162. After the second bottom board insertion section 3161 of the third side circuit board 316 is inserted into the second bottom board insertion hole 3113 of the bottom circuit board 311, the bottom of the third side circuit board 316 and the bottom circuit board 311 are welded to conduct the third side circuit board 316 and the bottom circuit board 311. Board 311, so that the bottom of the third side circuit board 316 is inserted into and directly conductively connected to the bottom circuit board 311, after the side panel insertion section 3162 of the third side circuit board 316 is inserted into the side panel insertion hole 3133 of the first side circuit board 313, the third side circuit board 316 and the first side circuit board 313 are welded to conduct the third side circuit board 316 and the first side circuit board 313, so that the side of the third side circuit board 316 is inserted into and directly conductively connected to the first side circuit board 313.
[0050] After the bottom of the first side circuit board 313 is inserted into and directly conductively connected to the bottom circuit board 311, the top of the first side circuit board 313 is inserted into and directly conductively connected to the top circuit board 312, the bottom of the second side circuit board 314 is inserted into and directly conductively connected to the bottom circuit board 311, and the top of the second side circuit board 314 is inserted into and directly conductively connected to the top circuit board 312, a group of the transmitting circuit boards 31 form a accommodating cavity 317 between the bottom circuit board 311, the top circuit board 312, the first side circuit board 313 and the second side circuit board 314. The bottom, top and side of the transformer module 32 are respectively provided with pins 320, and the bottom circuit board 311, the top circuit board 312 and the second side circuit board 314 are respectively provided with holes 310, wherein the transformer module 32 is accommodated in the accommodating cavity 317, and the pins 320 at the bottom of the transformer module 32 are inserted into the holes 310 of the bottom circuit board 311, so that the transformer module 32 is directly connected to the bottom circuit board 311, the pins 320 at the top of the transformer module 32 are inserted into the holes 310 of the top circuit board 312, so that the transformer module 32 is directly connected to the top circuit board 312, and the pins 320 on the side of the transformer module 32 are inserted into the holes of the second side circuit board 314 310, so that the transformer module 32 is directly conductively connected to the second side circuit board 314, and the top of the transformer module 32 is locked to the top circuit board 312. For example, screws can be used to lock the top of the transformer module 32 to the top circuit board 312. In this way, on the one hand, the transformer module 32 is surrounded by a group of the transmitting circuit boards 31 and the transformer module 32 is reliably accommodated in the accommodating cavity 317 formed by a group of the transmitting circuit boards 31. On the other hand, the plug-in relationship between the transformer module 32 and the bottom circuit board 311, the top circuit board 312 and the second side circuit board 314 and the locking relationship between the transformer module 32 and the top circuit board 312 are conducive to further enhancing the structural stability of the transmitting circuit unit 30.
[0051] Reference Figures 6 to 9The transformer module 32 includes a plurality of transformers 321, a module circuit board 322 and a shell 323, wherein at least one transformer 321 is respectively arranged on opposite sides of the module circuit board 322, and the transformer 321 is connected to the module circuit board 322, for example, the transformer 321 can be directly welded to the module circuit board 322, wherein the shell 323 includes a left shell 3231 and a right shell 3232, the left shell 3231 is arranged on the left side of the module circuit board 322 and covers the transformer 321 located on the left side of the module circuit board 322, the right shell 3232 is arranged on the right side of the module circuit board 322 and covers the transformer 321 located on the right side of the module circuit board 322, and the pin 320 of the module circuit board 322 extends to the outside of the shell 323 through the gap between the left shell 3231 and the right shell 3232.
[0052] Since the transformer 321 is disposed on both opposite sides of the module circuit board 322, the transformer module 32 can have reduced length and width to reduce the space requirement of the accommodating cavity 317, thereby reducing the size requirement of a group of the transmitting circuit boards 31, so that the overall size of the transmitting circuit unit 30 can be smaller, thereby reducing the space requirement of the cabin 11 of the cabin body 10. At the same time, since the left shell 3231 covers the transformer 321 located on the left side of the module circuit board 322 and the right shell 3232 covers the transformer 321 located on the right side of the module circuit board 322, the transformer 321 and the module circuit board 322 can be hidden, so that in the process of assembling the transmitting cabin, the transformer 321 and the module circuit board 322 can be prevented from being collided or scratched, so as to ensure the reliability of the transformer module 32. In addition, after passing through the screw hole of the top circuit board 312, the screw extends to the threaded hole of the left housing 3231 or the right housing 3232, so as to achieve reliable installation of the top circuit board 312 and the transformer module 32, and thus, the left housing 3231 and the right housing 3232 provide screw traction points. In addition, after passing through the screw hole of the first side circuit board 313, the screw extends to the threaded hole of the left housing 3231 or the right housing 3232, so as to achieve reliable installation of the first side circuit board 313 and the transformer module 32, and after passing through the screw hole of the second side circuit board 314, the screw extends to the threaded hole of the left housing 3231 or the right housing 3232, so as to achieve reliable installation of the second side circuit board 314 and the transformer module 32, and thus, the left housing 3231 and the right housing 3232 provide screw traction points.
[0053] Preferably, the transformer 321 has a pair of notches 3211, and the soldering points for soldering the transformer 321 and the module circuit board 322 are located in the notches 3211 of the transformer 321. In this way, the soldering points do not need to occupy the circumferential space of the transformer 321, so that the distance between two adjacent transformers 321 can be smaller, so that the transformer module 32 can have a more compact structure.
[0054] Preferably, two or more transformers 321 are respectively arranged on opposite sides of the module circuit board 322, and on the same side of the module circuit board 322, one transformer 321 and another transformer 321 located above the transformer 321 are arranged in a staggered manner, so that interference between adjacent transformers 321 can be avoided as much as possible on the basis of ensuring that the transformer module 32 has a small size. For example, in this specific example of the launch cabin of the present invention, refer to the attached Figures 7 to 9 Four transformers 321 are arranged on the same side of the module circuit board 322 , wherein the two transformers 321 located at the bottom and the two transformers 321 located at the top are staggered.
[0055] Reference Figure 7 and Figure 8 The left shell 3231 and the right shell 3232 of the shell 323 respectively have more than two independent receiving cavities 3230. The transformers 321 arranged on the left side of the module circuit board 322 are respectively received in the receiving cavities 3230 of the left shell 3231. In this way, the left shell 3231 can isolate adjacent transformers 321 to avoid interference between adjacent transformers 321. Correspondingly, the transformers 321 arranged on the right side of the module circuit board 322 are respectively received in the receiving cavities 3230 of the right shell 3232. In this way, the right shell 3232 can isolate adjacent transformers 321 to avoid interference between adjacent transformers 321.
[0056] Continue to refer to the attached Figure 2 , Figures 6 to 9, each transformer 321 has a transformer through-hole 3212, the module circuit board 322 has at least one circuit board through-hole 3221, the left shell 3231 and the right shell 3232 have a shell through-hole 3233 respectively, the position of the shell through-hole 3233 of the left shell 3231, the position of the transformer through-hole 3212 of the transformer 321 arranged on the left side of the module circuit board 322, the position of the circuit board through-hole 3221 of the module circuit board 322, the position of the transformer through-hole 3212 of the transformer 321 arranged on the right side of the module circuit board 322 and the position of the shell through-hole 3233 of the right shell 3232 correspond, wherein the transformer module 32 further includes a locking unit 324 The locking unit 324 includes a screw 3241 and a nut 3242. One end of the screw 3241 is screwed onto the nut 3242 after passing through the shell through-hole 3233 of the right shell 3232, the transformer through-hole 3212 of the transformer 321 arranged on the right side of the module circuit board 322, the circuit board through-hole 3221 of the module circuit board 322, the transformer through-hole 3212 of the transformer 321 arranged on the left side of the module circuit board 322, and the shell through-hole 3233 of the left shell 3231 in sequence. Through such a structure, the locking unit 324 reliably assembles the left shell 3231, the right shell 3232, the module circuit board 322 and the transformer 321 into a whole.
[0057] Continue to refer to the attached Figure 1 , Figures 3 to 5 The transmitting circuit unit 30 further includes a connecting circuit board 33, the connecting circuit board 33 has a first connecting end 331 and a second connecting end 332 corresponding to the first connecting end 331, the first connecting end 331 of the connecting circuit board 33 is conductively connected to the top circuit board 312, and the second connecting end 332 of the connecting circuit board 33 can be conductively connected to other components (for example, a receiving cabin of a sonar). Preferably, the connecting circuit board 33 is a flexible printed circuit (FPC) that can be deformed.
[0058] In the attached Figures 1 to 25In the specific example of the transmitting cabin of the present invention shown, the unit bracket 20 has a bracket through-hole 21, the top circuit board 312 can be screwed to the unit bracket 20 by screws to install the transmitting circuit unit 30 on the unit bracket 20, and the first connecting end 331 of the connecting circuit board 33 is installed on the top circuit board 312 after passing through the bracket through-hole 21 of the unit bracket 20. The unit bracket 20 can be installed to the cabin body 10 by screws, so that the transmitting circuit unit 30 is suspended by the unit bracket 20 in the cabin 11 of the cabin body 10.
[0059] Attached Figures 10 to 13 The assembly process of the transformer module 32 is shown.
[0060] Reference Fig.10 , providing a module circuit board 322, wherein the bottom and side of the module circuit board 322 respectively have the pins 320, and the module circuit board 322 has four circuit board through-holes 3221, and these circuit board through-holes 3221 respectively penetrate the opposite sides of the module circuit board 322.
[0061] Reference Fig.11 , four transformers 321 are arranged on the left side of the module circuit board 322, the positions of the transformer through-holes 3212 of each transformer 321 correspond to the positions of the circuit board through-holes 3221 of each module circuit board 322, and the soldering points for soldering the transformer 321 and the module circuit board 322 are located in the notch 3211 of the transformer 321. Correspondingly, four transformers 321 are arranged on the right side of the module circuit board 322, the positions of the transformer through-holes 3212 of each transformer 321 correspond to the positions of the circuit board through-holes 3221 of each module circuit board 322, and the soldering points for soldering the transformer 321 and the module circuit board 322 are located in the notch 3211 of the transformer 321.
[0062] Reference Fig.12, the left housing 3231 is arranged on the left side of the module circuit board 322, and each of the transformers 321 arranged on the left side of the module circuit board 322 is respectively accommodated in each of the accommodating cavities 3230 of the left housing 3231, and the positions of each of the housing through-holes 3233 of the left housing 3231 correspond to the positions of the transformer through-holes 3212 of each of the transformers 321 arranged on the left side of the module circuit board 322. Correspondingly, the right housing 3232 is arranged on the right side of the module circuit board 322, and each of the transformers 321 arranged on the right side of the module circuit board 322 is respectively accommodated in each of the accommodating cavities 3230 of the right housing 3232, and the positions of each of the housing through-holes 3233 of the right housing 3232 correspond to the positions of the transformer through-holes 3212 of each of the transformers 321 arranged on the right side of the module circuit board 322. The pins 320 of the module circuit board 322 extend to the outside of the housing 323 through the gap between the left housing 3231 and the right housing 3232 .
[0063] Reference Fig.13 One end of the screw rod 3241 of the locking unit 324 passes through the shell through hole 3233 of the right shell 3232, the transformer through hole 3212 of the transformer 321 arranged on the right side of the module circuit board 322, the circuit board through hole 3221 of the module circuit board 322, the transformer through hole 3212 of the transformer 321 arranged on the left side of the module circuit board 322 and the shell through hole 3233 of the left shell 3231 in sequence, and then the nut 3242 is screwed on. The screw rod 3241 and the nut 3242 cooperate with each other to achieve reliable assembly of the left shell 3231, the right shell 3232, the module circuit board 322 and the transformer 321.
[0064] That is to say, the present invention provides an assembly method of the transformer module 32, wherein the assembly method comprises the following steps: S1, at least one transformer 321 is disposed on two opposite sides of the module circuit board 322, wherein the transformer 321 is connected to the module circuit board 322; S2. When the left shell 3231 and the right shell 3232 of the housing 323 are respectively arranged on opposite sides of the module circuit board 322, the pin 320 of the module circuit board 322 is allowed to extend to the outside of the housing 323 through the gap between the left shell 3231 and the right shell 3232, wherein the left shell 3231 covers the transformer 321 located on the left side of the module circuit board 322, and the right shell 3232 covers the transformer 321 located on the right side of the module circuit board 322.
[0065] Preferably, in step S1, more than two transformers 321 are respectively arranged on opposite sides of the module circuit board 322, and on the same side of the module circuit board 322, one transformer 321 and another transformer 321 located above the transformer 321 are staggeredly arranged to avoid interference between adjacent transformers 321.
[0066] Preferably, in the step S1, the transformer 321 and the module circuit board 322 are welded in the notch 3211 of the transformer 321, so that the transformer 321 is connected to the module circuit board 322, that is, the soldering points for welding the transformer 321 and the module circuit board 322 are located in the notch 3211 of the transformer 321, so that the soldering points do not need to occupy the circumferential space of the transformer 321, so that the distance between two adjacent transformers 321 can be smaller, so that the transformer module 32 can have a more compact structure.
[0067] Preferably, in the step S1, the position of the transformer through-hole 3212 of the transformer 321 is allowed to correspond to the position of the circuit board through-hole 3221 of the module circuit board 322, and the step S2 further includes the steps of: S2.1, allowing the left shell 3231 to be arranged on the left side of the module circuit board 322 in a manner that the position of the shell through-hole 3233 of the left shell 3231 and the transformer through-hole 3212 of the transformer 321 arranged on the left side of the module circuit board 322 correspond; S2.2, allowing the right shell 3232 to be arranged in a manner that the position of the shell through-hole 3233 of the right shell 3232 and the transformer through-hole 3212 of the transformer 321 arranged on the left side of the module circuit board 322 correspond. The right side housing 3232 is arranged on the right side of the module circuit board 322 in a manner corresponding to the transformer through-hole 3212 of the transformer 321 on the right side of the module circuit board 322; S2.3, allowing one end of the screw rod 3241 of the locking unit 324 to sequentially pass through the housing through-hole 3233 of the right side housing 3232, the transformer through-hole 3212 of the transformer 321 arranged on the right side of the module circuit board 322, the circuit board through-hole 3221 of the module circuit board 322, the transformer through-hole 3212 of the transformer 321 arranged on the left side of the module circuit board 322, and the housing through-hole 3233 of the left side housing 3231; S2.4, screw the nut 3242 of the locking unit 324 onto the end of the screw rod 3241 protruding from the left shell 3231. Through such steps, the screw rod 3241 and the nut 3242 cooperate with each other to achieve reliable assembly of the left shell 3231, the right shell 3232, the module circuit board 322 and the transformer 321.
[0068] Attached Figures 14 to 25 The assembly process of the launch module is shown.
[0069] Reference Fig.14 and Fig.15 , providing the bottom circuit board 311, wherein the bottom circuit board 311 has two first bottom board insertion holes 3111, one bottom board slot 3112 and one second bottom board insertion hole 3113. It can be understood that the bottom circuit board 311 also has a plurality of screw holes.
[0070] Reference Fig.16, one end of each assembly column 315 is fixed at a different position of the bottom circuit board 311. For example, one end of each screw can extend to the threaded hole of each assembly column 315 after passing through each screw hole of the bottom circuit board 311, and be screwed with the assembly column 315, so that one end of each assembly column 315 is fixed at a different position of the bottom circuit board 311.
[0071] Reference Fig.17 and Fig.18 First, insert the side panel insertion section 3162 of the third side circuit board 316 into the side panel insertion hole 3133 of the first side circuit board 313 to realize the assembly of the first side circuit board 313 and the third side circuit board 316, and then respectively insert the first bottom panel insertion sections 3131 of the first side circuit board 313 into the first bottom panel insertion holes 3111 of the bottom circuit board 311 and insert the second bottom panel insertion sections 3161 of the third side circuit board 316 into the second bottom panel insertion holes 3113 of the bottom circuit board 311 to realize the assembly of the first side circuit board 313 and the bottom circuit board 311 and the assembly of the third side circuit board 316 and the bottom circuit board 311, and then respectively weld the corresponding positions of the bottom circuit board 311, the first side circuit board 313 and the third side circuit board 316 to realize circuit conduction. It can be understood that the attached Fig.17 and Fig.18 The steps shown can be found in the attached Fig.16 The steps shown before.
[0072] Reference Fig.19 and Fig. 20 , assemble the transformer module 32 to the bottom circuit board 311 and the first side circuit board 313, wherein the pin 320 at the bottom of the module circuit board 322 of the transformer module 32 is inserted into the jack 310 of the bottom circuit board 311, and screws can be used to lock the bottom circuit board 311 to the left shell 3231 and the right shell 3232 of the outer shell 323 and to lock the first side circuit board 313 to the left shell 3231 and the right shell 3232 of the outer shell 323.
[0073] Reference Fig.21First, allow each of the top plate insertion sections 3132 of the first side circuit board 313 to be inserted into each of the top plate insertion holes 3121 of the top circuit board 312 respectively, then allow screws to lock the top circuit board 312 to the left shell 3231 and the right shell 3232 of the outer shell 323, and then weld the corresponding positions of the first side circuit board 313 and the top circuit board 312 to achieve circuit conduction, wherein the pin 320 on the top of the module circuit board 322 of the transformer module 32 is inserted into the jack 310 of the top circuit board 312.
[0074] Reference Fig. 22 , while allowing the bottom plate protrusion 3141 and the top plate protrusion 3142 of the second side circuit board 314 to be respectively inserted into the bottom plate slot 3112 of the bottom circuit board 311 and the top plate slot 3122 of the top circuit board 312, and then allowing screws to lock the second side circuit board 314 to the left shell 3231 and the right shell 3232 of the shell 323, wherein the pin 320 on the side of the module circuit board 322 of the transformer module 32 is inserted into the jack 310 of the second side circuit board 314, and then the corresponding positions of the bottom circuit board 311, the top circuit board 312 and the second side circuit board 314 are respectively welded to achieve circuit conduction.
[0075] Reference Fig.23 , connect the first connection end 331 of the connection circuit board 33 to the top circuit board 312. Fig.24 , after the second connection end 332 of the connection circuit board 33 passes through the bracket through-hole 21 of the unit bracket 20, the top circuit board 312 is locked to the unit bracket 20 using screws. In other examples of the launch capsule of the present invention, the top circuit board 312 can be first locked to the unit bracket 20 using screws, and then the first connection end 331 of the connection circuit board 33 is allowed to pass through the bracket through-hole 21 of the unit bracket 20, and the first connection end 331 of the connection circuit board 33 and the top circuit board 312 are connected.
[0076] Reference Fig.25 The unit bracket 20 and the cabin body 10 are fastened together using screws, and the unit bracket 20 suspends the transmitting circuit unit 30 in the cabin 11 of the cabin body 10 to realize the assembly of the transmitting cabin.
[0077] It should be understood by those skilled in the art that the embodiments of the present invention described above and shown in the accompanying drawings are only examples and do not limit the present invention. The purpose of the present invention has been fully and effectively achieved. The functional and structural principles of the present invention have been demonstrated and explained in the embodiments, and the embodiments of the present invention may be deformed or modified without departing from the principles.
Claims
1. Transformer module, characterized in that: include: Multiple transformers; A module circuit board, wherein at least one transformer is disposed on opposite sides of the module circuit board, and the transformer is connected to the module circuit board; A shell, wherein the shell includes a left shell and a right shell, the left shell is arranged on the left side of the module circuit board, and the left shell covers the transformer located on the left side of the module circuit board, the right shell is arranged on the right side of the module circuit board, and the right shell covers the transformer located on the right side of the module circuit board, wherein the pins of the module circuit board extend to the outside of the shell through the gap between the left shell and the right shell.
2. The transformer module according to claim 1, characterized in that: Two or more transformers are respectively arranged on opposite sides of the module circuit board. On the same side of the module circuit board, one transformer and another transformer located above the transformer are arranged in a staggered manner.
3. The transformer module according to claim 2, characterized in that: The left shell and the right shell respectively have more than two independent receiving cavities, and the transformers arranged on the left side of the module circuit board are respectively received in the receiving cavities of the left shell, and the transformers arranged on the right side of the module circuit board are respectively received in the receiving cavities of the right shell.
4. The transformer module according to claim 1, 2 or 3, characterized in that: The transformer has a notch, and a soldering point for soldering the transformer and the module circuit board is located in the notch of the transformer.
5. The transformer module according to claim 2 or 3, characterized in that: Each transformer has a transformer through-hole, the module circuit board has a circuit board through-hole, and the left shell and the right shell have shell through-holes, respectively. The position of the shell through-hole of the left shell, the position of the transformer through-hole of the transformer arranged on the left side of the module circuit board, the position of the circuit board through-hole of the module circuit board, the position of the transformer through-hole of the transformer arranged on the right side of the module circuit board, and the position of the shell through-hole of the right shell correspond to each other. The transformer module further includes a locking unit, which includes a screw and a nut. One end of the screw is screwed onto the nut after passing through the shell through-hole of the right shell, the transformer through-hole of the transformer arranged on the right side of the module circuit board, the circuit board through-hole of the module circuit board, the transformer through-hole of the transformer arranged on the left side of the module circuit board, and the shell through-hole of the left shell in sequence.
6. A sonar launch cabin, characterized in that: include: Cabin; Unit bracket; A transmitting circuit unit, wherein the transmitting circuit unit comprises a group of mutually connected transmitting circuit boards and a transformer module according to any one of claims 1 to 5, wherein the pins of the transformer module are inserted into the sockets of the transmitting circuit board, wherein the transmitting circuit board is mounted on the unit bracket, and the unit bracket is mounted on the cabin, and the transmitting circuit unit is suspended in the cavity of the cabin.
7. A method for assembling a transformer module, characterized in that: The assembly method comprises the following steps: S1, at least one transformer is disposed on two opposite sides of a module circuit board, wherein the transformer is connected to the module circuit board; S2, when the left shell and the right shell of the shell are respectively arranged on the opposite sides of the module circuit board, the pins of the module circuit board are allowed to extend to the outside of the shell through the gap between the left shell and the right shell, wherein the left shell covers the transformer located on the left side of the module circuit board, and the right shell covers the transformer located on the right side of the module circuit board.
8. The assembly method according to claim 7, characterized in that: In the step S1, more than two transformers are respectively arranged on opposite sides of the module circuit board, and on the same side of the module circuit board, one transformer and another transformer located above the transformer are arranged in a staggered manner.
9. The assembly method according to claim 7 or 8, characterized in that: In the step S1, the transformer and the module circuit board are welded in the notch of the transformer, so that the transformer is connected to the module circuit board.
10. The assembly method according to claim 8, characterized in that: In the step S1, the positions of the transformer perforations of the transformers are allowed to correspond to the positions of the circuit board perforations of the module circuit board, and the step S2 further includes the steps of: S2.1, allowing the left housing to be arranged on the left side of the module circuit board in a manner that the position of the housing through-hole of the left housing corresponds to the transformer through-hole of the transformer arranged on the left side of the module circuit board; S2.2, allowing the right housing to be arranged on the right side of the module circuit board in a manner such that the position of the housing through-hole of the right housing corresponds to the transformer through-hole of the transformer arranged on the right side of the module circuit board; S2.3, allowing one end of the screw of the locking unit to sequentially pass through the housing through-hole of the right housing, the transformer through-hole of the transformer disposed on the right side of the module circuit board, the circuit board through-hole of the module circuit board, the transformer through-hole of the transformer disposed on the left side of the module circuit board, and the housing through-hole of the left housing; S2.4, screwing a nut of the locking unit onto the end of the screw rod protruding from the left shell.
Citation Information
Patent Citations
Modular Socket with Enhanced Port Isolation
CN102687351B
Network transformer structure
CN106229127A
Staggered fully-shielded wire, transformer based on staggered fully-shielded wire and staggered fully-shielded wire based on multi-phase current
CN113257536A
Transformer oil tank structure
CN114242397A
Electromagnetic driving mechanism capable of avoiding electromagnetic interference
CN117711242A
