Double-sided vibration reduction loudspeaker

Abstract

The utility model provides a double-sided vibration attenuation loudspeaker, which comprises a first loudspeaker seat, a first vibration assembly, a second loudspeaker seat, a second vibration assembly and a magnetic loop assembly, and the magnetic loop assembly comprises a first annular magnetic conductive plate, a second annular magnetic conductive plate, a central magnetic conductive plate, a first magnetic conductive unit, a second magnetic conductive unit, two side magnets and two bending connecting parts, and each bent connecting part is arranged between the central magnetic conductive plate and the second annular magnetic conductive plate. Therefore, the double-sided vibration reduction loudspeaker can meet the requirement of thinning, and also has the effects of double-sided sound production, improvement of sound production efficiency, vibration reduction and easiness in assembly.

Description

TECHNICAL FIELD

[0001] The utility model provides a double -sided vibration reduction loudspeaker, especially a double -sided vibration reduction loudspeaker can reach the requirement of thin -type, double -sided sound effect, improve the sound efficiency, reduce vibration and easily assemble. BACKGROUND

[0002] Generally, two vibration components and two magnetic return components are combined in a symmetrical design to achieve double -sided sound of the loudspeaker, which causes the problem of difficult realization of loudspeaker thin -type.

[0003] Therefore, how to invent a double -sided vibration reduction loudspeaker to achieve the requirement of thin -type, and also have the purpose of vibration reduction and double -sided sound will be actively disclosed by the utility model. UTILITY MODEL CONTENTS

[0004] In view of the defects of the prior art, the inventor feels that it is not perfect, and overcomes it by careful research, and further develops a thin double -sided vibration reduction loudspeaker to achieve the requirement of thin -type, and also have the purpose of vibration reduction and double -sided sound.

[0005] To achieve the above object and other objects, the utility model provides a double -sided vibration reduction loudspeaker, which comprises a first loudspeaker seat, a first vibration component, a second loudspeaker seat, a second vibration component and a magnetic return component. The first vibration component includes a first diaphragm and a first voice coil, the first diaphragm is combined to the first loudspeaker seat, and the first voice coil is combined to the first diaphragm;The second loudspeaker seat is combined to the first loudspeaker seat;The second vibration component includes a second diaphragm and a second voice coil, the second diaphragm is combined to the second loudspeaker seat, and the second voice coil is combined to the second diaphragm;The magnetic return component includes a first ring type magnetic conducting plate, a second ring type magnetic conducting plate, a central magnetic conducting plate, a first magnetic conducting unit, a second magnetic conducting unit, two edge magnets and two bending connecting parts, the first ring type magnetic conducting plate is combined to the first loudspeaker seat, the second ring type magnetic conducting plate is combined to the second loudspeaker seat, each bending connecting part is arranged between the central magnetic conducting plate and the second ring type magnetic conducting plate, the first magnetic conducting unit is combined to one side of the central magnetic conducting plate and located between each bending connecting part, the second magnetic conducting unit is combined to the other side of the central magnetic conducting plate, each edge magnet is arranged between the first ring type magnetic conducting plate and the second ring type magnetic conducting plate, and each edge magnet is arranged on the outside of the first magnetic conducting unit and the second magnetic conducting unit, the first voice coil is movably arranged between each edge magnet on the outside of the first magnetic conducting unit and the outside of each bending connecting part, and the second voice coil is movably arranged between each edge magnet on the outside of the second magnetic conducting unit and the inside of each bending connecting part.

[0006] The first vibration assembly includes a first flexible circuit suspension, a first diaphragm coupled to the first flexible circuit suspension, the first flexible circuit suspension coupled to the first horn, and the first voice coil coupled to the first flexible circuit suspension. The second vibration assembly includes a second flexible circuit suspension, a second diaphragm coupled to the second flexible circuit suspension, the second flexible circuit suspension coupled to the second horn, and the second voice coil coupled to the second flexible circuit suspension.

[0007] The first horn includes two first horn soldering portions, the first flexible circuit suspension includes two first suspension soldering portions, the first voice coil is electrically connected to the first suspension soldering portions, and the first suspension soldering portions are respectively electrically connected to the first horn soldering portions. The second horn includes two second horn soldering portions, the second flexible circuit suspension includes two second suspension soldering portions, the second voice coil is electrically connected to the second suspension soldering portions, and the second suspension soldering portions are respectively electrically connected to the second horn soldering portions.

[0008] The first flexible circuit suspension includes two first suspension lines and two first voice coil soldering portions, and the first voice coil is electrically connected to the first suspension soldering portions via the first voice coil soldering portions and the first suspension lines. The second flexible circuit suspension includes two second suspension lines and two second voice coil soldering portions, and the second voice coil is electrically connected to the second suspension soldering portions via the second voice coil soldering portions and the second suspension lines.

[0009] The first horn soldering portions respectively include a first electrical connection portion, and the second horn soldering portions respectively include a second electrical connection portion.

[0010] The first horn and the first ring-shaped magnetic conductive plate are integrally injection molded, and the second horn and the second ring-shaped magnetic conductive plate are integrally injection molded.

[0011] The bending connection portions include a first longitudinal connection plate body, a first transverse connection plate body, a second longitudinal connection plate body, and a second transverse connection plate body. The first longitudinal connection plate body is connected to the central magnetic conductive plate, the first transverse connection plate body is connected to the first longitudinal connection plate body, the second longitudinal connection plate body is connected to the first transverse connection plate body, and the second transverse connection plate body is connected between the second longitudinal connection plate body and the second ring-shaped magnetic conductive plate.

[0012] The first longitudinal connection plate body, the first transverse connection plate body, and the second longitudinal connection plate body form a recess toward the second vibration assembly, the first voice coil is movably arranged outside the recess, and the second voice coil is movably arranged inside the recess.

[0013] The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate.

[0014] The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate.

[0015] Therefore, the double-sided vibration reduction loudspeaker can not only meet the requirement of thinness, but also has the effects of double-sided sound emission, improved sound emission efficiency, vibration reduction and easy assembly. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure One .

[0017] Figure 2 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure Two .

[0018] Figure 3 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure Three .

[0019] Figure 4 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure One .

[0020] Figure 5 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure Two .

[0021] Figure 6 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure 4 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate.

[0022] Figure 7 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure 4 The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate.

[0023] Figure 8A The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure One .

[0024] Figure 8B The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure Two .

[0025] Figure 8C The double-sided vibration reduction loudspeaker is characterized in that each bending connecting part is integrally formed with the central magnetic conductive plate and the second ring-shaped magnetic conductive plate. Figure Three .

[0026] REFERENCE NUMERALS

[0027] 1 Double-sided vibration-reducing loudspeaker

[0028] 11 First horn seat

[0029] 111 First horn seat welding portion

[0030] 112 First electrical connection portion

[0031] 12 First vibration assembly

[0032] 121 First diaphragm

[0033] 122 First flexible circuit spring

[0034] 1221 First spring welding portion

[0035] 123 First voice coil

[0036] 1231 Lead wire

[0037] 13 Second horn seat

[0038] 131 Second horn seat welding portion

[0039] 132 Second electrical connection portion

[0040] 14 Second vibration assembly

[0041] 141 Second diaphragm

[0042] 142 Second flexible circuit spring

[0043] 1421 Second spring welding portion

[0044] 1422 Second spring wire

[0045] 1423 Second voice coil welding portion

[0046] 143 Second voice coil

[0047] 1431 Lead wire

[0048] 15 Magnetic return assembly

[0049] 151 First ring-shaped magnetic conductor plate

[0050] 152 Second ring-shaped magnetic conductor plate

[0051] 153 Central magnetic conductor plate

[0052] 154 First magnetic conductor unit

[0053] 1541 First magnet

[0054] 1542 First magnetic conductor plate

[0055] 155 second magnetic conductive unit

[0056] 1551 second magnet

[0057] 1552 second magnetic conductive plate

[0058] 156 side magnet

[0059] 157 bending connecting portion

[0060] 1571 first longitudinal connecting plate body

[0061] 1572 first transverse connecting plate body

[0062] 1573 second longitudinal connecting plate body

[0063] 1574 second transverse connecting plate body

[0064] 1575 concave portion DETAILED DESCRIPTION

[0065] In order to fully understand the purpose, features and effects of the present application, the present application will be described in detail by the following specific embodiments, and in conjunction with the accompanying drawings, as follows:

[0066] Please refer to Figures 1 to 7 As shown, the present application provides a double-sided vibration reduction loudspeaker 1, which can be rectangular, comprising a first loudspeaker seat 11, a first vibration assembly 12, a second loudspeaker seat 13, a second vibration assembly 14 and a magnetic return assembly 15.

[0067] The corner of the top of the short side of the first loudspeaker seat 11 can be provided with two first loudspeaker seat welding portions 111.

[0068] The first vibration assembly 12 comprises a first diaphragm 121 and a first voice coil 123, the first diaphragm 121 is combined to the first loudspeaker seat 11, and the first voice coil 123 is combined to the first diaphragm 121. In addition, the first vibration assembly 12 can comprise a first flexible circuit spring 122, the bottom of the outer periphery of the first flexible circuit spring 122 can be combined to the top of the bottom of the periphery of the first diaphragm 121, the bottom of the outer periphery of the first flexible circuit spring 122 can be combined to the top of the periphery of the first loudspeaker seat 11, and the first voice coil 123 can be combined to the bottom of the inner periphery of the first flexible circuit spring 122. Furthermore, the corner of the short side of the first flexible circuit spring 122 can be provided with two first spring welding portions 1221, the two wires 1231 of the first voice coil 123 can be electrically connected to each first spring welding portion 1221 respectively, and each first spring welding portion 1221 can be welded to each first loudspeaker seat welding portion 111.

[0069] The corner of the top of the short side of the second horn seat 13 can be provided with two second horn seat welding portions 131, and the second horn seat 13 is combined to the first horn seat 11.

[0070] The second vibration assembly 14 includes a second diaphragm 141, a second flexible circuit voice coil bobbin 142, and a second voice coil 143. The second diaphragm 141 is combined to the second flexible circuit voice coil bobbin 142, the second flexible circuit voice coil bobbin 142 is combined to the second horn seat 13, and the second voice coil 143 is combined to the second flexible circuit voice coil bobbin 142. In addition, the second vibration assembly 14 can include a second flexible circuit voice coil bobbin 142, the bottom of the periphery of the second diaphragm 141 can be combined to the top of the outer periphery of the second flexible circuit voice coil bobbin 142, the bottom of the outer periphery of the second flexible circuit voice coil bobbin 142 can be combined to the top of the periphery of the second horn seat 13, and the second voice coil 143 can be combined to the bottom of the inner periphery of the second flexible circuit voice coil bobbin 142. Furthermore, a short side corner of the second flexible circuit voice coil bobbin 142 can be provided with two second bobbin welding portions 1421, two conductive wires 1431 of the second voice coil 143 can be electrically connected to each of the second bobbin welding portions 1421, and each of the second bobbin welding portions 1421 can be welded to each of the second horn seat welding portions 131.

[0071] The magnetic circuit assembly 15 includes a first ring-shaped magnetic conductive plate 151, a second ring-shaped magnetic conductive plate 152, a central magnetic conductive plate 153, a first magnetic conductive unit 154, a second magnetic conductive unit 155, two side magnets 156, and two bending connecting portions 157. The first ring-shaped magnetic conductive plate 151 is combined to the inner periphery of the first horn seat 11, the second ring-shaped magnetic conductive plate 152 is combined to the inner periphery of the second horn seat 13, each of the bending connecting portions 157 is arranged between the inner periphery of the two short sides of the central magnetic conductive plate 153 and the two short sides of the second ring-shaped magnetic conductive plate 152, the first magnetic conductive unit 154 is combined to one side of the central magnetic conductive plate 153 and is located between each of the bending connecting portions 157, the second magnetic conductive unit 155 is combined to the other side of the central magnetic conductive plate 153, so that the first magnetic conductive unit 154 and the second magnetic conductive unit 155 jointly clamp the central magnetic conductive plate 153, and the central magnetic conductive plate 153 can support and separate the first magnetic conductive unit 154 and the second magnetic conductive unit 155, each of the side magnets 156 is arranged between the two long sides of the first ring-shaped magnetic conductive plate 151 and the two long sides of the second ring-shaped magnetic conductive plate 152, and each of the side magnets 156 is arranged outside the two long sides of the first magnetic conductive unit 154 and the two long sides of the second magnetic conductive unit 155 to form a magnetic gap, the first voice coil 123 is movably arranged between the outside of the first magnetic conductive unit 154 and each of the bending connecting portions 157 and each of the side magnets 156, and the second voice coil 143 is movably arranged between the outside of the second magnetic conductive unit 155 and each of the bending connecting portions 157 and each of the side magnets 156.

[0072] When the double-sided vibration reduction loudspeaker 1 of the present application is assembled (as shown in Figures 8A-8C 、 Figure 4 ), the first diaphragm 121, the first flexible circuit spring 122 and the first voice coil 123 can be assembled into the first vibration assembly 12, and the second diaphragm 141, the second flexible circuit spring 142 and the second voice coil 143 can be assembled into the second vibration assembly 14, and the first horn seat 11 and the second horn seat 13 can be integrally injection molded with the first ring-shaped magnetic conductive plate 151 and the second ring-shaped magnetic conductive plate 152, respectively. In an embodiment of the present application, the first magnetic conductive unit 154 can be combined to one side of the central magnetic conductive plate 153, and the second magnetic conductive unit 155 can be combined to the other side of the central magnetic conductive plate 153, so that the first magnetic conductive unit 154 and the second magnetic conductive unit 155 jointly clamp the central magnetic conductive plate 153, and each side magnet 156 is arranged between the two long sides of the first ring-shaped magnetic conductive plate 151 and the two long sides of the second ring-shaped magnetic conductive plate 152, and each side magnet 156 is arranged outside the first magnetic conductive unit 154 and the second magnetic conductive unit 155 to form the magnetic gap, and after the magnetic return assembly 15, the first horn seat 11 and the second horn seat 13 are combined and magnetized, the first vibration assembly 12 is combined with the first horn seat 11, and the second vibration assembly 14 is combined with the second horn seat 13, and at the same time, the first voice coil 123 is movably arranged outside the first magnetic conductive unit 154 and each side magnet 156 between the outer sides of each bent connecting part 157, and the second voice coil 143 is movably arranged outside the second magnetic conductive unit 155 and each side magnet 156 between the inner sides of each bent connecting part 157, and then the first horn seat 11 and the second horn seat 13 are combined with each other, thereby assembling the double-sided vibration reduction loudspeaker 1, and achieving the effect of easy assembly.

[0073] When the double-sided vibration reduction loudspeaker 1 of the utility model is used, it can be combined with a sound box (not shown in the figure), and in an embodiment of the utility model, each first loudspeaker seat welding portion 111 can be provided with a first electrical connection portion 112, each second loudspeaker seat welding portion 131 can be provided with a second electrical connection portion 132, and each first electrical connection portion 112 and each second electrical connection portion 132 can be correspondingly welded and conducted, so as to be welded and used by external input electronic wires, so that the first voice coil 123 can form an upper independent magnetic field through the first magnetic conduction unit 154, the first ring-shaped magnetic conduction plate 151 and each side magnet 156, and the second voice coil 143 can form a lower independent magnetic field through the second magnetic conduction unit 155, the second ring-shaped magnetic conduction plate 152 and each side magnet 156, so that the double-sided vibration reduction loudspeaker 1 forms two completely independent magnetic fields, so as to make the first voice coil 123 and the second voice coil 143 respectively push the first diaphragm 121 and the second diaphragm 141 to vibrate through electromagnetic action.

[0074] When the first vibration assembly 12 and the second vibration assembly 14 act, after the first voice coil 123 and the second voice coil 143 receive external input electronic signals, the first diaphragm 121 and the second diaphragm 141 simultaneously act outward and simultaneously act inward, when the first diaphragm 121 and the second diaphragm 141 simultaneously act outward and simultaneously act inward, the acting forces on both sides will mutually offset, so that the first vibration assembly 12 and the second vibration assembly 14 can realize the effect of vibration reduction, and avoid that the acting force generated by the action of the first diaphragm 121 and the second diaphragm 141 drives the entire double-sided vibration reduction loudspeaker 1 to vibrate.

[0075] Since the first magnetic conduction unit 154 and the second magnetic conduction unit 155 jointly hold the central magnetic conduction plate 153, the first magnetic conduction unit 154 and the second magnetic conduction unit 155 can be located at upper and lower positions inside the double-sided vibration reduction loudspeaker 1 respectively, and the two side magnets 156 are located at positions outside the double-sided vibration reduction loudspeaker 1 respectively, so that the double-sided vibration reduction loudspeaker 1 forms a four-magnetic structure. In addition, the double-sided vibration reduction loudspeaker 1 of the utility model can drive the first voice coil 123 and the second voice coil 143 to vibrate in different directions through the magnetic field (as shown in the figure) generated by the first magnetic conduction unit 154, the second magnetic conduction unit 155 and each side magnet 156, so as to realize the vibration reduction effect of the double-sided vibration reduction loudspeaker 1. Figure 6

[0076] In addition, as shown in the figure Figures 1 to 3 ​As shown, one side of the second flexible circuit spring 142 can be provided with two second spring lines 1422 and two second voice coil welding portions 1423. Two wires 1431 of the second voice coil 143 can be electrically connected to second spring welding portions 1421 on the other side of the second flexible circuit spring 142 via the second voice coil welding portions 1423 and the second spring lines 1422. Similarly, the first flexible circuit spring 122 and the second flexible circuit spring 142 can have the same structure. One side of the first flexible circuit spring 122 can be provided with two first spring lines (not shown) and two first voice coil welding portions (not shown). Two wires 1231 of the first voice coil 123 can be electrically connected to first spring welding portions 1221 on the other side of the first flexible circuit spring 122 via the first voice coil welding portions (not shown) and the first spring lines (not shown). Thus, the double-sided vibration reduction loudspeaker 1 of the present application can be easily assembled.

[0077] Furthermore, the first voice coil 123 is movably arranged outside the first magnetic guide unit 154 and between each edge magnet 156 and each bent connecting portion 157. The second voice coil 143 is movably arranged outside the second magnetic guide unit 155 and between each edge magnet 156 and each bent connecting portion 157. Therefore, the width and length of the first voice coil 123 can be greater than those of the second voice coil 143. In addition, the double-sided vibration reduction loudspeaker 1 of the present application can provide sufficient vibration space for the first voice coil 123 and the second voice coil 143 through the bent connecting portions 157, so as to provide greater vibration stroke. Thus, the first voice coil 123 and the second voice coil 143 can obtain the same and sufficient vibration space, so as to improve the bass and shock absorption effects.

[0078] In addition, the first flexible circuit spring 122 and the second flexible circuit spring 142 can have the wiring of the flexible circuit board (FPC) and the effect of the spring. In addition to making the first flexible circuit spring 122 have the function of conducting electricity with the two wires 1231 of the first voice coil 123 and the first horn seat welding portion 111 of the first horn seat 11, and making the second flexible circuit spring 142 have the function of conducting electricity with the two wires 1431 of the second voice coil 143 and the second horn seat welding portion 131 of the second horn seat 13, the first flexible circuit spring 122 and the second flexible circuit spring 142 can also provide damping and buffering effects, so that the double-sided vibration reduction loudspeaker 1 of the present application can increase the bearing power and output greater volume.

[0079] Therefore, the double-sided vibration reduction loudspeaker 1 can achieve the requirements of thinness, vibration reduction and bidirectional sound emission effect.

[0080] In addition to the above-mentioned embodiments, in an embodiment of the present application, the first magnetic conduction unit 154 can have a first magnet 1541 and a first magnetic conduction plate 1542, the first magnet 1541 is arranged on one side of the central magnetic conduction plate 153, and the first magnetic conduction plate 1542 is arranged on the first magnet 1541; the second magnetic conduction unit 155 can have a second magnet 1551 and a second magnetic conduction plate 1552, the second magnet 1551 is arranged on the other side of the central magnetic conduction plate 153, and the second magnetic conduction plate 1552 is arranged on the second magnet 1551. In this way, the present application can form an upper independent magnetic field through the first magnetic conduction unit 154, the central magnetic conduction plate 153 and each edge magnet 156, and form a lower independent magnetic field through the second magnetic conduction unit 155, the central magnetic conduction plate 153 and each edge magnet 156, so that the double-sided vibration reduction loudspeaker 1 forms two completely independent magnetic fields, so as to push the first diaphragm 121 and the second diaphragm 141 to vibrate through electromagnetic action of the first voice coil 123 and the second voice coil 143, so as to achieve the effect of bidirectional sound emission, and at the same time achieve the effect of improving the sound emission efficiency. In addition, the first magnetic conduction plate 1542 can extend out of the first magnet 1541 to approach the first voice coil 123, thereby improving the magnetic conduction effect.

[0081] In addition to the above embodiments, in an embodiment of the present application, each bending connecting portion 157 can be provided with a first longitudinal connecting plate body 1571, a first transverse connecting plate body 1572, a second longitudinal connecting plate body 1573, and a second transverse connecting plate body 1574. The first longitudinal connecting plate body 1571 is connected to both short sides of the central magnetic conductive plate 153, the first transverse connecting plate body 1572 is connected to the first longitudinal connecting plate body 1571, the second longitudinal connecting plate body 1573 is connected to the first transverse connecting plate body 1572, and the second transverse connecting plate body 1574 is connected between the second longitudinal connecting plate body 1573 and the second ring-shaped magnetic conductive plate 152. In addition, a recess 1575 can be formed between the first longitudinal connecting plate body 1571, the first transverse connecting plate body 1572, and the second longitudinal connecting plate body 1573 towards the second vibration assembly 14. The recess 1575 can serve as a magnetic gap. The first voice coil 123 can be movably arranged outside the recess 1575, and the second voice coil 143 can be movably arranged inside the recess 1575. In this way, the first magnetic conductive unit 154 and the second magnetic conductive unit 155 can jointly clamp the central magnetic conductive plate 153. The first magnetic conductive unit 154 and the second magnetic conductive unit 155 can be located at upper and lower positions inside the double-sided vibration-reducing loudspeaker 1, respectively. Each side magnet 156 can be located at a position outside both sides of the double-sided vibration-reducing loudspeaker 1, respectively. The double-sided vibration-reducing loudspeaker 1 forms a four-magnetic structure. The first voice coil 123 can be movably arranged outside each second longitudinal connecting plate body 1573, and the second voice coil 143 can be movably arranged inside each recess 1575. Thus, the first voice coil 123 and the second voice coil 143 can both obtain the same and sufficient vibration space, thereby improving the bass and vibration-reducing effects. In addition, the magnetic fields generated by the first magnetic conductive unit 154, the second magnetic conductive unit 155, and each side magnet 156 (as shown in Figure 6 ), can drive the first voice coil 123 and the second voice coil 143 to vibrate in different directions, thereby achieving the vibration-reducing effect of the double-sided vibration-reducing loudspeaker 1.

[0082] In addition to the above embodiments, in an embodiment of the present application, each bending connecting portion 157 and the outer edge of the central magnetic conductive plate 153 and the inner edge of the second ring-shaped magnetic conductive plate 152 can be integrally formed or assembled. For example, the second ring-shaped magnetic conductive plate 152 can be separately provided without each bending connecting portion 157 and the central magnetic conductive plate 153. When assembled, the second ring-shaped magnetic conductive plate 152 and the second loudspeaker seat 13 can be integrally injection molded, and then directly assembled with the second vibration assembly 14. Each bending connecting portion 157 and the central magnetic conductive plate 153 are assembled with the magnetic return assembly 15, thereby making the present application more suitable for actual application requirements.

[0083] The utility model discloses in the foregoing text has disclosed with preferable embodiment, but the person skilled in the art should understand that, this embodiment is only used for depicting the utility model, and should not be interpreted as limiting the scope of the utility model. It should be noted that all changes and substitutions equivalent to the embodiment should be included in the scope of the utility model. Therefore, the protection scope of the utility model is defined by the patent application range.

Claims

1. A biaxially damped loudspeaker, characterized by Comprising: a first speaker seat; a first vibration assembly including a first diaphragm and a first voice coil, the first diaphragm being combined to the first speaker seat, the first voice coil being combined to the first diaphragm; a second speaker seat being combined to the first speaker seat; a second vibration assembly including a second diaphragm and a second voice coil, the second diaphragm being combined to the second speaker seat, the second voice coil being combined to the second diaphragm; and a magnetic circuit assembly including a first ring-shaped magnetic conducting plate, a second ring-shaped magnetic conducting plate, a central magnetic conducting plate, a first magnetic conducting unit, a second magnetic conducting unit, two side magnets and two bending connecting parts, the first ring-shaped magnetic conducting plate being combined to the first speaker seat, the second ring-shaped magnetic conducting plate being combined to the second speaker seat, each bending connecting part being provided between the central magnetic conducting plate and the second ring-shaped magnetic conducting plate, the first magnetic conducting unit being combined to one side of the central magnetic conducting plate and being located between each bending connecting part, the second magnetic conducting unit being combined to the other side of the central magnetic conducting plate, each side magnet being provided between the first ring-shaped magnetic conducting plate and the second ring-shaped magnetic conducting plate, and each side magnet being provided at the outer side of the first magnetic conducting unit and the second magnetic conducting unit, the first voice coil being movably provided between each side magnet at the outer side of the first magnetic conducting unit and the outer side of each bending connecting part, the second voice coil being movably provided between each side magnet at the outer side of the second magnetic conducting unit and the inner side of each bending connecting part.

2. The double-sided damped loudspeaker of claim 1, wherein, The first vibration assembly includes a first flexible circuit bump, the first diaphragm being combined to the first flexible circuit bump, the first flexible circuit bump being combined to the first speaker seat, the first voice coil being combined to the first flexible circuit bump; the second vibration assembly includes a second flexible circuit bump, the second diaphragm being combined to the second flexible circuit bump, the second flexible circuit bump being combined to the second speaker seat, the second voice coil being combined to the second flexible circuit bump.

3. The double-sided damped loudspeaker of claim 2, wherein, The first speaker seat is provided with two first speaker seat welding parts, the first flexible circuit bump is provided with two first bump welding parts, the first voice coil is electrically connected to each first bump welding part, and each first bump welding part is electrically connected to each first speaker seat welding part; the second speaker seat is provided with two second speaker seat welding parts, the second flexible circuit bump is provided with two second bump welding parts, the second voice coil is electrically connected to each second bump welding part, and each second bump welding part is electrically connected to each second speaker seat welding part.

4. The double-sided damped loudspeaker of claim 3, wherein, The first flexible circuit bump is provided with two first bump lines and two first voice coil welding parts, the first voice coil is electrically connected to each first bump welding part through each first voice coil welding part and each first bump line; the second flexible circuit bump is provided with two second bump lines and two second voice coil welding parts, the second voice coil is electrically connected to each second bump welding part through each second voice coil welding part and each second bump line.

5. The double-sided damped loudspeaker of claim 3, wherein, Each first speaker seat welding part is provided with a first electrical connection part, and each second speaker seat welding part is provided with a second electrical connection part.

6. The double-sided damped loudspeaker of claim 1, wherein, The first speaker seat and the first ring-shaped magnetic conducting plate are integrally injection molded, and the second speaker seat and the second ring-shaped magnetic conducting plate are integrally injection molded.

7. The double-sided damped loudspeaker of claim 1, wherein, Each bending connecting part is provided with a first longitudinal connecting plate body connected to the central magnetic conducting plate, a first transverse connecting plate body connected to the first longitudinal connecting plate body, a second longitudinal connecting plate body connected to the first transverse connecting plate body, and a second transverse connecting plate body connected between the second longitudinal connecting plate body and the second ring-shaped magnetic conducting plate.

8. The double-sided damped loudspeaker of claim 7, wherein, The first longitudinal connecting plate body, the first transverse connecting plate body, and the second longitudinal connecting plate body form a recess toward the second vibration assembly, the first voice coil is movably arranged outside the recess, and the second voice coil is movably arranged inside the recess.

9. The double-sided damped loudspeaker of claim 1, wherein, Each bending connecting part is integrally formed with the central magnetic conducting plate and the second ring-shaped magnetic conducting plate.

10. The double-sided damped loudspeaker of claim 1, wherein, Each bending connecting part is assembled with the central magnetic conducting plate and the second ring-shaped magnetic conducting plate.

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