110results about "Loudspeaker diaphragm shape" patented technology

Various implementations include an acoustic driver having: a piston with a plurality of protrusions extending around a periphery thereof; and a liquid silicone rubber (LSR) surround, where the LSR surround extends around the plurality of protrusions.

The present disclosure provides an open earphone comprising: a sound production component including a transducer and a housing accommodating the transducer and an ear hook. In a wearing state, a portion of the ear hook is hung between an auricle and a user's head, and the other portion of the ear hook extends towards a side of the auricle away from the head and connects to the sound production component to place the sound production component in a position near an ear canal but not blocking the ear canal. The housing is provided with a sound outlet on an inner side surface towards the auricle for guiding a sound generated by the transducer out of the housing and to the ear canal, and a ratio of an area of the sound outlet to an area of the inner side surface is between 0.015 and 0.25.

In an embodiment a MEMS structure includes a back-plate structure, a support structure having a cavity, a membrane structure between the back-plate structure and the support structure, a first clamping structure having a first structured oxide layer between the support structure and the membrane structure, wherein an inner edge of the first clamping structure is laterally offset from an edge of the cavity, and wherein an offset of the first clamping structure forms a gap between the support structure and the membrane structure, and a second clamping structure having a second structured oxide layer and a first structured taper layer between the back-plate structure and the membrane structure, wherein the second structured oxide layer is arranged between the back-plate structure and the first structured taper layer, wherein an inner edge of the second structured oxide layer laterally extends over the cavity, and wherein the first structured taper layer is arranged between the second structured oxide layer.

A system including: a first damper attached to a support frame; a drive component penetrates the support frame and the first damper; a diaphragm holder having a first frame part, a framework unit, and a fixing part connected to the first frame part by the framework unit; the diaphragm holder connected to the first damper; the fixing part is connected to one end of the drive component; a diaphragm assembly having a diaphragm unit and an annular diaphragm; a phase ball assembly attached to the side of the annular diaphragm closer to the diaphragm holder; a second damper sleeved on the outside of the diaphragm holder, the diaphragm assembly. the phase ball assembly, and the first damper: the side in the second damper facing the diaphragm holder is connected to the diaphragm holder and the side in the second damper facing the support frame is connected to the support frame.

A speaker module and a headset (100) are provided. The speaker module is used for the headset (100). The headset (100) includes a housing (1). The speaker module includes a first speaker unit (4a) and a second speaker unit (4b). An outer surface of a first diaphragm assembly (4a21) of the first speaker unit (4a) faces a first side, the second speaker unit (4b) is located on one side of a circumferential direction of the first speaker unit (4a), the second speaker unit (4b) emits sound toward the first side, and sound emission frequency of the second speaker unit (4b) is greater than sound emission frequency of the first speaker unit (4a).

The present invention provides a MEMS piezoelectric speaker including a substrate with a back cavity, a diaphragm, a capacitive system and a flexible film. The diaphragm includes a fixed end, a suspended end. Adjacent suspended ends are at least partially spaced to form a slit. The suspended end includes a support section and a piezoelectric section. Along the thickness direction of the MEMS piezoelectric speaker, a flexible film is at least partially spaced from the diaphragm and the flexible film is spaced from the substrate. This design can improve the sound pressure level of the MEMS piezoelectric speaker in the middle and high frequency, and improve the acoustic performance of the MEMS piezoelectric speaker.

Provided in the present invention is a diaphragm array. The diaphragm array comprises a plurality of diaphragm bodies arranged side by side, wherein a magnet is provided in a gap between every two adjacent diaphragm bodies, every two adjacent diaphragm bodies are connected in series, a plurality of magnets are arranged in parallel, and the plurality of diaphragm bodies are arranged in the same plane or are arranged in an arc-shaped path. In the present invention, the plurality of diaphragm bodies arranged side by side are used to form the diaphragm array, so that the area of diaphragms is increased; and when the diaphragm array of the present invention is applied to a full-range earphone, using the diaphragm array can make sound heard around the ear, so that the sound is more authentic.

Disclosed is a vibration assembly (100), which includes an elastic element (110), which includes a central region (112), an edge region (114) disposed on the outer periphery of the central region (112), and a fixing region (116) disposed on the outer periphery of the edge region (114), and is configured to vibrate along a direction perpendicular to the central region (112), the central region (112) including an elastic member and a reinforcing member (120) laminated along the vibration direction, and the reinforcing member (120) has a plurality of groove structures (121) with openings facing the elastic member.

A high-acoustic-resistance piston motion loudspeaker disclosed in the present disclosure belongs to the field of sound-electricity conversion. The loudspeaker includes a substrate, a driving assembly, a vibrating diaphragm, a connecting assembly and a vibration cavity. The connecting assembly is not coplanar with the vibrating diaphragm, which is of a concealed connecting structure. The driving assembly is configured to drive the vibrating diaphragm to generate a piston motion. The vibrating diaphragm is located in the vibration cavity, and a displacement range of the vibrating diaphragm in a perpendicular direction is within a height range of the vibration cavity formed by a supporting structure extending in a thickness direction of a base, so as to achieve purposes of reducing air leakage and improving a sound pressure level in a working process of the loudspeaker.

The invention discloses a loudspeaker, and the loudspeaker comprises a frame; a vibrating membrane; a support element for the diaphragm; comprising a magnet yoke, a magnetic core and a magnetic circuit of a magnet, and an air gap is formed between the magnet yoke and the magnetic core; and a coil having an upper portion connected to the diaphragm and a lower portion inserted into the air gap. The diaphragm includes: an inner annular portion including an arcuate first central section, a first inner edge connected to a support element, and a first outer edge; an outer annular portion including an arcuate second central section, a second inner edge, and a second outer edge connected to the frame; an intermediate annular portion comprising a dome-shaped section arranged with its concave surface facing downward and connected to the second inner edge, and a funnel-shaped second section extending convergently from the dome-shaped section towards the support element and connected to the first outer edge.

The present disclosure provides an open earphone comprising: a sound production component including a transducer and a housing accommodating the transducer and an ear hook. In a wearing state, a portion of the ear hook is hung between an auricle and a user's head, and the other portion of the ear hook extends towards a side of the auricle away from the head and connects to the sound production component to place the sound production component in a position near an ear canal but not blocking the ear canal. The housing is provided with a sound outlet on an inner side surface towards the auricle for guiding a sound generated by the transducer out of the housing and to the ear canal, and a ratio of an area of the sound outlet to an area of the inner side surface is between 0.015 and 0.25.

An electronic device, including a housing defining an opening, a speaker unit disposed within the housing and adjacent the opening, the speaker unit including an asymmetric diaphragm, and an asymmetric magnet assembly. The speaker unit can include a housing defining an internal volume, an asymmetric driver disposed in the housing; and a surround comprising a variable stiffness.

The present disclosure relates to an earphone including a sound production component and an ear hook. In a wearing state, the ear hook is configured to place the sound production component at a position near an ear canal but not blocking the ear canal. An inner contour of a projection of the ear hook on the user's sagittal plane includes a first curve that has an extremum point in a first direction. The first direction is perpendicular to a long-axis direction of a projection of the sound production component. The extremum point is located behind a projection point of an upper vertex of the ear hook on the user's sagittal plane, and the upper vertex of the ear hook is the highest point of an inner contour of the ear hook along a vertical axis of the user.

A speaker system having a first speaker and a first speaker diaphragm, a second speaker and a second speaker diaphragm. and a serrated waveguide, wherein the serrated waveguide acoustically couples the first speaker diaphragm with the second speaker diaphragm.

To provide an edge and the like that improve sound quality. The edge includes an edge-shaped portion that is formed from an inner peripheral portion to an outer peripheral portion, and a groove portion that is formed in the edge-shaped portion and has a peak portion and a valley portion, wherein a ridge line of the valley portion of the groove portion extends from a start point on the inner peripheral portion side to an end point on the outer peripheral portion side so as to draw a continuously changing curve.

An open-type earphone according to an embodiment of the present specification includes an ear hook including a sound generating unit and a first part and a second part connected in sequence, wherein the first part is hung between the user's auricle and head, and the second part extends toward the anterior outer surface of the auricle and is connected to the sound generating unit, thereby attaching the sound generating unit near the ear canal in a position that does not block the ear canal opening, and at least a portion of the sound generating unit is inserted into the cavity of the concha, and the overlap ratio between the area of ​​the sound generating unit projected onto the sagittal plane and the area of ​​the concha cavity projected onto the sagittal plane is 44.01% or more.

A loudspeaker having a frame, a diaphragm, a support element for the diaphragm, and a magnetic circuit that includes a yoke, a core and a magnet. The yoke and the core form an air gap. An upper portion of a coil is connected to the diaphragm and a lower portion of the coil is in the air gap. The diaphragm includes inner, outer and intermediate annular portions. The inner annular portion includes an arch-shaped first central section and a first inner edge connected to the support element and a first outer edge. The outer annular portion includes an arch-shaped second central section, a second inner edge and a second outer edge connected to the frame. The intermediate annular portion includes a dome-shaped section with downwardly-facing concavity and from which a funnel-shaped section extends. The funnel-shaped section converges towards the support element and is connected to the first outer edge.

The invention relates to a balanced armature, BA, receiver, a hearing device comprising the BA receiver and a method for producing the BA receiver. The BA receiver comprises a magnet assembly, an electromagnetic coil, an armature and a diaphragm element. The magnet assembly generates a magnetic field in an air gap. The coil comprises a coil tunnel. The armature extends through the air gap and the coil tunnel. The diaphragm element comprises a membrane portion and a sealing rim that are formed as an integral part. The membrane portion is directly attached to the armature for moving the membrane portion with the armature. The sealing rim extends along the perimeter of the membrane portion and is arranged to seal a front volume of the receiver from a back volume of the receiver.

The present disclosure provides an open earphone comprising: a sound production component including a transducer and a housing accommodating the transducer and an ear hook. In a wearing state, a portion of the ear hook is hung between an auricle and a user's head, and the other portion of the ear hook extends towards a side of the auricle away from the head and connects to the sound production component to place the sound production component in a position near an ear canal but not blocking the ear canal. The housing is provided with a sound outlet on an inner side surface towards the auricle for guiding a sound generated by the transducer out of the housing and to the ear canal, and a ratio of an area of the sound outlet to an area of the inner side surface is between 0.015 and 0.25.

One or more embodiments of the present disclosure provide a speaker. The speaker may include a diaphragm, a magnetic circuit component, a coil connected to the diaphragm, a bracket arranged around the magnetic circuit component, and a housing. At least part of the coil may be arranged in a magnetic gap formed by the magnetic circuit component, and the coil may drive the diaphragm to vibrate to generate sound after the coil is energized. The diaphragm may include a main-body region and a folded-ring region surround the main-body region. The bracket may be connected to a portion of the folded ring region away from the main-body region, and a plurality of air holes may be provided on the bracket. A pressure relief hole may be provided on the housing. Sound from a back surface of the diaphragm may be transmitted to the pressure relief hole through the plurality of air holes, and the plurality of air holes may at least include a first air hole and a second air hole. A distance from a center of the first air hole to a center of the pressure relief hole may be greater than a distance from a center of the second air hole to the center of the pressure relief hole, and an area of the first air hole may be greater than an area of the second air hole.

This acoustic device is provided with: a diaphragm that generates sound by vibrating; a frame that supports the diaphragm; and a stopper portion that is provided between the diaphragm and the frame and that, when the diaphragm is pressed toward the frame side, comes into abutment with a part of the diaphragm to suppress deformation of the diaphragm. When the diaphragm is pressed toward the frame side, the diaphragm and a stopper portion A abut on each other by line contact.

A loudspeaker assembly (1) for use outside a vehicle is provided. The diaphragm (3) and the enclosure (7) are formed from a single piece of material comprising a single layer of woven fabric of orthogonally interwoven fibers and a thermosetting resin.

The sound generating unit according to one or more embodiments of the present specification includes a vibrating membrane, a magnetic circuit assembly, a coil, and a support frame arranged to surround the magnetic circuit assembly, the coil is connected to the vibrating membrane and at least a portion of which is located in a magnetic gap formed by the magnetic circuit assembly, the coil vibrates the vibrating membrane when current is applied to the coil to generate sound, the vibrating membrane includes a main body region and an edge region surrounding the main body region, a first portion of the support frame is connected to the edge region, a thickness of the first portion is within a range of 0.3 mm to 3 mm, and the thickness of the first portion is the minimum distance in the vibration direction of the vibrating membrane between a connection region between the support frame and the edge region and a region of the support frame directly attached to the magnetic circuit assembly.

An embodiment of the present specification provides an earphone including a sound generating unit, an ear hook, and a microphone assembly, the ear hook being configured to mount the sound generating unit in a position near the ear canal so as not to block the ear canal opening, such that at least a portion of the sound generating unit is inserted into the cavity of the concha, the microphone assembly including at least a first microphone and a second microphone, the first microphone or the second microphone being provided in the sound generating unit or the ear hook, and the sound generating unit or the ear hook being provided with a first microphone, A first sound collection hole and a second sound collection hole corresponding to a first microphone and a second microphone are formed, an extension of a line connecting a projection of the first sound collection hole onto the user's sagittal plane and a projection of the second sound collection hole onto the sagittal plane has an intersection with a projection of the antihelix onto the sagittal plane, a distance between the projection of the first sound collection hole onto the sagittal plane and the projection of the second sound collection hole onto the sagittal plane is a first distance, a distance between the projection of the second sound collection hole onto the sagittal plane and the intersection is a second distance, and a ratio of the first distance to the second distance is 1.8 to 4.4.

The present invention provides a loudspeaker assembly for use on the outside of a vehicle. The diaphragm and surround are formed of a single piece of material, the material comprising a single layer woven fabric of orthogonal, woven fibers and a thermoset resin.

Disclosed is a vibration assembly (100), which includes an elastic element (110), which includes a central region (112), an edge region (114) disposed on the outer periphery of the central region (112), and a fixing region (116) disposed on the outer periphery of the edge region (114), and is configured to vibrate along a direction perpendicular to the central region (112), the central region (112) including an elastic member and a reinforcing member (120) laminated along the vibration direction, and the reinforcing member (120) has a plurality of groove structures (121) with openings facing the elastic member.

The present disclosure provides an earphone comprising a sound production component and a suspension structure. The sound production component includes a diaphragm and a housing. In a wearing state, the suspension structure is used to place the sound production component at a position near but not blocking an ear canal, wherein an inner side surface of the housing facing an auricle is provided with a sound outlet, at least another side surface of the housing is provided with a first pressure relief hole, and a distance between a center of the sound outlet and a midpoint of an upper boundary of the inner side surface is greater than a distance between a center of the first pressure relief hole and the midpoint of the upper boundary of the inner side surface.

The invention relates to a suspension device (1) for a loudspeaker comprising: - an outer edge (2); - an inner edge (3); - a suspension (4) extending between the outer and inner edges; the suspension being able to absorb movement stresses produced on the inner edge by means of a predetermined deformation of the suspension. According to the invention, the suspension comprises at least three distinct portions: a rotating mass (7); a first lip (8) attached to the end of the inner edge; and a second lip (9) attached to the end of the outer edge; the first lip and the second lip also being connected to the rotating mass such that the pistonic movements of the diaphragm cause the rotating mass of the suspension to rotate.