CN104796825A - Wavy suspension side structure - Google Patents

Wavy suspension side structure Download PDF

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Publication number
CN104796825A
CN104796825A CN201410328141.6A CN201410328141A CN104796825A CN 104796825 A CN104796825 A CN 104796825A CN 201410328141 A CN201410328141 A CN 201410328141A CN 104796825 A CN104796825 A CN 104796825A
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CN
China
Prior art keywords
waveform
vibrating elements
limit structure
hang
framework
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CN201410328141.6A
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Chinese (zh)
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CN104796825B (en
Inventor
黄新民
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SHENGYA ELECTRONIC CO Ltd NINGBO
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SHENGYA ELECTRONIC CO Ltd NINGBO
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Priority to CN201410328141.6A priority Critical patent/CN104796825B/en
Priority to EP15737028.9A priority patent/EP3096537B1/en
Priority to PCT/CN2015/070682 priority patent/WO2015106685A1/en
Publication of CN104796825A publication Critical patent/CN104796825A/en
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Publication of CN104796825B publication Critical patent/CN104796825B/en
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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04RLOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
    • H04R7/00Diaphragms for electromechanical transducers; Cones
    • H04R7/16Mounting or tensioning of diaphragms or cones
    • H04R7/18Mounting or tensioning of diaphragms or cones at the periphery
    • H04R7/20Securing diaphragm or cone resiliently to support by flexible material, springs, cords, or strands
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04RLOUDSPEAKERS, MICROPHONES, GRAMOPHONE PICK-UPS OR LIKE ACOUSTIC ELECTROMECHANICAL TRANSDUCERS; DEAF-AID SETS; PUBLIC ADDRESS SYSTEMS
    • H04R2307/00Details of diaphragms or cones for electromechanical transducers, their suspension or their manufacture covered by H04R7/00 or H04R31/003, not provided for in any of its subgroups
    • H04R2307/207Shape aspects of the outer suspension of loudspeaker diaphragms

Abstract

The invention discloses a wavy suspension side structure. The wavy suspension side structure comprises an elastic suspension side, wherein the suspension side is arranged around a vibration element and extends between the vibration element and a frame, and further comprises a plurality of waveform limiting sections; the plurality of waveform limiting sections form a wavy structure along a peripheral direction around the vibration element so as to restrict a movement direction of the vibration element to an axial direction, thereby preventing the vibration element from shaking and deviating. The wavy suspension side structure is suitable for manufacturing a loudspeaker or a passive vibration plate.

Description

A kind of waveform hangs limit structure
Technical field
The present invention relates to a kind of audio device, particularly a kind of waveform of loudspeaker vibration unit hangs limit structure.
Background technology
Existing audio device, such as loud speaker, generally comprise speaker frame, the vibrating diaphragm supported by described speaker frame, the voice coil loudspeaker voice coil be coupled with described vibrating diaphragm, and a magnetic receipt unit with described voice coil loudspeaker voice coil electromagnetic induction, thus order about described diaphragm oscillations, thus producing sound.Especially, described vibrating diaphragm is arranged on an opening part of described speaker frame, wherein when electromagnetic ground induces described voice coil loudspeaker voice coil reciprocating motion, correspondingly drives described diaphragm oscillations.But the direction of vibration of described vibrating diaphragm is uncontrolled, thus the sound timbre that described vibrating diaphragm can not reproduce.In order to obtain good sound timbre, described vibrating diaphragm only reciprocally should move in one direction with uniform amplitude.Such as, when described vibrating diaphragm is flatly settled, described vibrating diaphragm should only reciprocally move on vertical (up and down) direction, and the displacement upwards of described vibrating diaphragm should be identical with the downward displacement of described vibrating diaphragm.
That is, existing vibrating diaphragm also cannot be accomplished only to move along its axial direction, but can produce skew when axially moving and rock, and causes the sound that produces impure.A kind of vibration unit of typical loud speaker as shown in Figure 1, it can as the vibrational system of loud speaker, to be connected to voice coil loudspeaker voice coil thus to respond the input of audio signal and produce sound, or it also can as passive vibration unit, and the change via air pressure is driven by other horn systems and vibrates the auxiliary audio of generation.As shown in FIG., in prior art, the vibration unit of typical loud speaker comprises middle vibrating mass 1, is positioned at the outstanding limit 2 around vibrating mass 1, and external frame 3.Wherein outstanding limit 2 is in arch, and coaxial with vibrating mass 1.But this traditional vibration unit, in a vibration period, outstanding limit 2 still can not be played by the restriction of the direction of vibration of vibrating mass 1 in its axial direction.Because vibrating mass 1 is when departing from axial direction motion, and outstanding limit 2 itself does not produce the skew that corresponding pulling force stops vibrating mass 1, but is just eased when the biasing force of vibrating mass 1 is passed to the junction of outstanding limit 2 and external frame 3.That is, outstanding limit 2 can not prevent the skew of vibrating mass 1 timely and effectively.
Existing a solution, as shown in Figures 2 and 3, be arrange multiple ribs 4 between outstanding limit 2 and external frame 3, these ribs 4 play the effect of location, offset axial direction motion to prevent vibrating mass 1.That is, when producing skew, biasing force can be delivered to these ribs 4, and is cancelled in time.But, as shown in Figure 3, on a section of this vibration unit, can find out, this ribs 4 is all linear contact lay with vibrating mass 1 and external frame 3, and like this when vibrating mass 1 axially moves, the power of pullling of its axial motion also can be passed to ribs 4 soon, and be passed to external frame 3 soon further, so in fact the axial motion of vibrating mass 1 is also subject to the impact of ribs 4.That is, although this ribs 4 plays certain effect preventing offseting, vibrating mass 1 displacement in axial direction is also made, namely the stroke of vibration unit also reduces, the stroke of whole vibration unit will be affected like this, make acoustical quality not good, particularly bass tonequality.
In addition, in order to obtain better acoustical quality, particularly bass effect, the stroke of vibration unit or vibrating diaphragm needs large as far as possible, and the solution in traditional audio device normally makes large-sized vibration unit or vibrating diaphragm size, thus make existing audio device small and exquisite not.Such as, and for many slimline products containing audio device, panel TV, cell phone, laptop computer, wishes that the described audio unit used is not only flat but also thin as much as possible, thus makes its slimline product can maintain unique design and profile.Bulky audio device is not suitable for designing in these slimline products.
Summary of the invention
Main purpose of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, wherein said vibration unit comprise vibratory elements, framework and be positioned at the elastic suspended limit of described framework around described vibrating elements, the circumferencial direction that described elastic suspended edge the central shaft of described vibration unit forms waveform, thus effectively prevents from described vibrating elements from producing when vibrating along central axis direction rocking and offset.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, described elastic suspended limit comprises the multiple spacing rib extended between described vibrating elements and described framework, hang limit to be formed height fluctuating shape around described vibrating elements by multiple described spacing rib, thus play spacing and prevent the effect that offsets.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, connection described in each between spacing rib and described framework to connect, and spacing rib cross section is triangular in shape described in each, thus both reached the firm effect connected, effectively can prevent rocking and offseting of described vibrating elements again, and the axial displacement of described vibrating elements can not be affected, to ensure the acoustical quality that described vibrating elements produces.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, described elastic suspended limit comprises spacing section of the multiple waveforms formed around described vibrating elements, multiple described waveform spacing section of peripheral direction along described vibrating elements forms waveform, thus these spacing section is played the effect limiting described vibrating elements radial deflection.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, in traditional vibration unit, outstanding edge radial section forms arch or waveform, and vibration unit of the present invention is the circumferencial direction formation waveform along described vibrating elements central shaft, thus at described vibrating elements when departing from its central shaft along a certain radial direction displacement, the wavy shaped configuration that spacing section of waveform is around formed stops this radial deflection effectively, thus by the displacement of described vibrating elements restriction in the axial direction.
Another object of the present invention is to provide a kind of waveform of vibration unit vibration unit to hang limit structure, waveform in tradition vibration unit hangs limit, its ripple is the circumferentially extension along vibrating elements, cause the outstanding limit in traditional vibration unit can not play buffering negative function to biasing force, and in elastic suspended limit of the present invention, negative function can be provided timely and effectively, prevent the skew of described vibrating elements.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, described elastic suspended limit can be formed multiple apart from one another by ground and along the groove of annular array along the surrounding of described vibrating elements, thus make described elastic suspended edge a series of concaveconvex structure of surrounding's formation of described vibrating elements, this concaveconvex structure can form waveform, thus can prevent the further radial displacement of described vibrating elements.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, described elastic suspended limit can use glue and described vibrating elements and described framework to bond together, or described elastic suspended limit is when being formed, its elastomeric material can be coated on described vibrating elements simultaneously, thus its manufacture method is easy, cost is low.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, described vibration unit may be used for making loudspeaker or providing the passive oscillating plate of assisting audio, and can improve acoustical quality, particularly bass effect.
Another object of the present invention is to provide a kind of waveform of vibration unit to hang limit structure, the described vibration unit of small size and small size just can reach larger stroke, preferably acoustical quality, thus described vibration unit of the present invention can be applied to slimline digital product as panel TV, cell phone, in laptop computer.
For reaching above object, the invention provides a kind of waveform and hang limit structure, it is suitable for being arranged between a vibrating elements of a vibration unit and a framework, it comprises an elastic suspended limit, described elastic suspended limit to be arranged on around described vibrating elements and to extend between described vibrating elements and described framework, described elastic suspended limit comprises spacing section of multiple waveform, wherein spacing section of multiple described waveform circumferentially forms wavy shaped configuration around described vibrating elements, the direction of motion of described vibrating elements is limited in axially thus prevents rocking and offseting of described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, form groove between spacing section adjacent of two described waveforms, thus form described wavy shaped configuration, the shape of described wavy shaped configuration is selected from the one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, spacing section of waveform described in each vertically extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework.
Preferably, hang in the structure of limit in above-mentioned waveform, spacing section of waveform described in each extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework obliquely.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described vibrating elements each described in the inner edge of spacing section of waveform in roughly sinusoidal waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described vibrating elements each described in the inner edge shape of spacing section of waveform be selected from one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described framework each described in the outer rim of spacing section of waveform be arc line shaped circumferentially.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described framework each described in the outer rim of spacing section of waveform in roughly sinusoidal waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, described framework be connected each described in the outer rim of spacing section of waveform be arc line shaped circumferentially.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described framework each described in the outer rim shape of spacing section of waveform be selected from one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described vibrating elements each described in the vibrating elements link of spacing section of waveform comprise two parts, and between two parts of described vibrating elements link shape is in an angle.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described framework each described in the framework link of spacing section of waveform comprise two parts, and between two parts of described framework link link shape is in an angle.
Preferably, hang in the structure of limit in above-mentioned waveform, be connected with described framework each described in the framework link of spacing section of waveform be connected to each other and form loop wire shape outer rim, and described annular outer edge and described vibrating elements coaxial.
Preferably, hang in the structure of limit in above-mentioned waveform, the angle formed between two parts of described vibrating elements link is acute angle, right angle or obtuse angle.
Preferably, hang in the structure of limit in above-mentioned waveform, the crest location that waveform described in each is spacing section is lower than the plane at the outer surface place of described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, the crest location of spacing section of part or all of described waveform is higher than the plane at the outer surface place of described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, spacing section of multiple described waveform symmetrically is arranged relative to the center of described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, the one in the shape selected from circles of described vibrating elements, ellipse, rectangle and polygon.
Preferably, hang in the structure of limit in above-mentioned waveform, the shape of described vibrating elements is circular, and the spacing section of radial direction along described vibrating elements of waveform described in each is arranged, thus forms radial spacing section of multiple described waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, the quantity that described waveform is spacing section is 2-100, and the wave height that waveform described in each is spacing section is 1-50mm.
Preferably, hang in the structure of limit in above-mentioned waveform, the size of described vibration unit is 0.0005-0.2 square metre.
Preferably, hang in the structure of limit in above-mentioned waveform, described vibrating elements comprises a vibration weight, and is coated on a coating layer of described vibration weight, and the material of described coating layer is identical with the material on described elastic suspended limit.
Preferably, hang in the structure of limit in above-mentioned waveform, described elastic suspended limit and described framework and described vibrating elements bond together.
Preferably, described vibration unit is for connecting a voice coil loudspeaker voice coil, and described voice coil loudspeaker voice coil is coupled to a magnetic and returns system, thus is assembled into a loud speaker.
Preferably, described vibration unit, as a passive oscillating plate, shares a vibration cavity with at least one principal oscillation loudspeaker, when described principal oscillation horns blared is answered the input of audio signal and vibrates, by the change of the air pressure in described vibration cavity, described vibration unit is vibrated by driving, to produce auxiliary audio.
Preferably, described vibration unit and described principal oscillation loudspeaker are arranged shoulder to shoulder.
Preferably, described vibration unit and described principal oscillation loudspeaker are back-to-back arranged coaxially.
According to a further aspect of the invention, the invention provides a kind of vibration unit, it comprises:
One vibrating elements;
One elastic suspended limit; And
One framework, wherein said elastic suspended limit to be arranged on around described vibrating elements and to extend between described vibrating elements and described framework, described elastic suspended limit comprises organizes connection rib more, wherein the described connection rib of each group comprises at least one top side connection rib and at least one bottom side connection rib, the inner peripheral surface of described top side connection rib from the top side of the outer surface of described vibrating elements to described framework extends, the described bottom side connection rib of the contiguous described top side connection rib inner peripheral surface from the bottom side of the outer surface of described vibrating elements to described framework extends, wherein form an arc linkage section between adjacent described connection rib, thus make described elastic suspended limit formation wavy shaped configuration around described vibrating elements.
Preferably, hang in the structure of limit, form groove described in each between arc linkage section, thus form described wavy shaped configuration in above-mentioned waveform, the shape of described wavy shaped configuration is selected from the one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, connection rib described in each is made up of different elastomeric materials from described linkage section.
Preferably, hang in the structure of limit in above-mentioned waveform, connection rib described in each is made up of identical elastomeric material with described linkage section.
Preferably, hang in the structure of limit in above-mentioned waveform, between two adjacent described arc linkage sections, shape in an angle.
Preferably, hang in the structure of limit in above-mentioned waveform, the described connection rib of each group comprises a top side connection rib and a bottom side connection rib, and makes the cross section of the inner edge on the described elastic suspended limit be connected with described vibrating elements form roughly sinusoidal waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, each group of described connection rib comprises two top side connection ribs and two bottom side connection ribs, described in two, bottom side connection rib lays respectively at the both sides of described top side connection rib, and makes the cross sectional shape of the inner edge on the described elastic suspended limit be connected with described vibrating elements be selected from one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, top side connection rib described in each extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework vertically or obliquely.
Preferably, hang in the structure of limit in above-mentioned waveform, bottom side connection rib described in each extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework vertically or obliquely.
Preferably, hang in the structure of limit in above-mentioned waveform, the framework link on the described elastic suspended limit be connected with the inner peripheral surface of described framework forms loop wire shape outer rim, and described annular outer edge and described vibrating elements coaxial.
Preferably, hang in the structure of limit in above-mentioned waveform, the one in the shape selected from circles of described vibrating elements, ellipse, rectangle and polygon.
Preferably, hang in the structure of limit in above-mentioned waveform, the shape of described vibrating elements is circular, and connection rib described in each is arranged along the radial direction of described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, described vibrating elements comprises a vibration weight, and is coated on a coating layer of described vibration weight, and the material of described coating layer is identical with the material on described elastic suspended limit.
Preferably, hang in the structure of limit in above-mentioned waveform, described elastic suspended limit and described framework and described vibrating elements bond together.
Preferably, above-mentioned vibration unit is for connecting a voice coil loudspeaker voice coil, and described voice coil loudspeaker voice coil is coupled to a magnetic and returns system, thus is assembled into a loud speaker.
Preferably, above-mentioned vibration unit, as a passive oscillating plate, shares a vibration cavity with at least one principal oscillation loudspeaker, when described principal oscillation horns blared is answered the input of audio signal and vibrates, by the change of the air pressure in described vibration cavity, described vibration unit is vibrated by driving, to produce auxiliary audio.
Preferably, above-mentioned vibration unit and described principal oscillation loudspeaker are arranged shoulder to shoulder.
Preferably, above-mentioned vibration unit and described principal oscillation loudspeaker are back-to-back arranged coaxially.
According to a further aspect of the invention, the present invention also provides a kind of vibration unit, and it comprises:
One vibrating elements;
One elastic suspended limit; And
One framework; Wherein said elastic suspended limit to be arranged on around described vibrating elements and to extend between described vibrating elements and described framework, and described elastic suspended limit forms multiple groove arranged apart from one another by ground around described vibrating elements, multiple described groove is along annular array, and the circumferencial direction making described elastic suspended edge described vibrating elements forms wavy shaped configuration, the direction of motion of described vibrating elements is limited in axially by described elastic suspended limit.
Preferably, hang in the structure of limit in above-mentioned waveform, multiple described groove arranges radially.
Preferably, hang in the structure of limit in above-mentioned waveform, multiple described groove symmetrically arranges relative to the center of described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, described elastic suspended limit comprises multiple arc linkage section, forms described groove between adjacent two described arc linkage sections, and adjacent two described grooves lay respectively at the two opposite sides on described elastic suspended limit.
Preferably, hang in the structure of limit in above-mentioned waveform, the quantity of described groove is 2-100.
Preferably, hang in the structure of limit in above-mentioned waveform, the outer rim on described elastic suspended limit is loop wire shape, and coaxial with described vibrating elements.
Preferably, hang in the structure of limit in above-mentioned waveform, the shape of the outer rim on described elastic suspended limit is selected from the one in ring-type sinusoidal waveform, ring-type square waveform, ring-type triangular waveform and ring-type sawtooth waveform.
Preferably, hang in the structure of limit in above-mentioned waveform, the shape stating the inner edge on elastic suspended limit is selected from the one in ring-type sinusoidal waveform, ring-type square waveform, ring-type triangular waveform and ring-type sawtooth waveform.
Preferably, above-mentioned vibration unit is for connecting a voice coil loudspeaker voice coil, and described voice coil loudspeaker voice coil is coupled to a magnetic and returns system, thus is assembled into a loud speaker.
Preferably, above-mentioned vibration unit, as a passive oscillating plate, shares a vibration cavity with at least one principal oscillation loudspeaker, when described principal oscillation horns blared is answered the input of audio signal and vibrates, by the change of the air pressure in described vibration cavity, described vibration unit is vibrated by driving, to produce auxiliary audio.
Preferably, above-mentioned vibration unit and described principal oscillation loudspeaker are arranged shoulder to shoulder.
Preferably, above-mentioned vibration unit and described principal oscillation loudspeaker are back-to-back arranged coaxially.
Accompanying drawing explanation
Fig. 1 is the structural representation of loudspeaker vibration unit of the prior art.
Fig. 2 A is the structural representation of the loudspeaker vibration unit of a kind of improvement in prior art.
Fig. 2 B is the schematic cross-section of A-A line in Fig. 2 A.
Fig. 3 is the schematic perspective view of the vibration unit according to first preferred embodiment of the present invention.
Fig. 4 is the decomposing schematic representation of the vibration unit according to above-mentioned first preferred embodiment of the present invention.
Fig. 5 A is the cutaway view of B-B line in Fig. 3.
Fig. 5 B is the cutaway view of C-C line in Fig. 3.
Fig. 6 has according to second preferred embodiment of the present invention the schematic perspective view that waveform hangs the vibration unit on limit.
Fig. 7 is the decomposing schematic representation of the vibration unit according to above-mentioned second preferred embodiment of the present invention.
Fig. 8 is the close-up schematic view at D place in Fig. 6.
Fig. 9 is the schematic cross-section of E-E line in Fig. 6.
Figure 10 A is applied to according to the vibration unit of above-mentioned second preferred embodiment of the present invention the schematic perspective view making loud speaker.
Figure 10 B is the decomposing schematic representation being applied to the loud speaker of making according to the vibration unit of above-mentioned second preferred embodiment of the present invention.
Figure 11 A is applied to according to the vibration unit of above-mentioned second preferred embodiment of the present invention the schematic perspective view making passive oscillating plate.
Figure 11 B is the cutaway view of the passive oscillating plate made according to the vibration unit of above-mentioned second preferred embodiment of the present invention when being used on audio amplifier.
Figure 12 is the schematic perspective view of the vibration unit of variant embodiment according to second preferred embodiment of the present invention.
Figure 13 is the decomposing schematic representation of the vibration unit of variant embodiment according to above-mentioned second preferred embodiment of the present invention.
Figure 14 is the close-up schematic view at F place in Figure 12.
Figure 15 is the schematic cross-section of G-G line in Figure 12.
Figure 16 has according to the 3rd preferred embodiment of the present invention the schematic perspective view that waveform hangs the vibration unit on limit.
Figure 17 is the decomposing schematic representation of the vibration unit according to above-mentioned 3rd preferred embodiment of the present invention.
Figure 18 is the close-up schematic view at H place in Figure 16.
Figure 19 is the schematic cross-section of I-I line in Figure 16.
Figure 20 is the schematic perspective view of the vibration unit of a kind of variant embodiment according to the 3rd preferred embodiment of the present invention.
Figure 21 is the decomposing schematic representation of the vibration unit of variant embodiment according to above-mentioned 3rd preferred embodiment of the present invention.
Figure 22 is the close-up schematic view at J place in Figure 20.
Figure 23 is the schematic cross-section of K-K line in Figure 20.
Figure 24 has according to the 4th preferred embodiment of the present invention the schematic perspective view that waveform hangs the vibration unit on limit.
Figure 25 is the decomposing schematic representation of the vibration unit according to above-mentioned 4th preferred embodiment of the present invention.
Figure 26 is the close-up schematic view at L place in Figure 24.
Figure 27 is the schematic cross-section of M-M line in Figure 24.
Embodiment
Below describe and realize the present invention for disclosing the present invention to enable those skilled in the art.Preferred embodiment in below describing only as an example, it may occur to persons skilled in the art that other apparent modification.The general principle of the present invention defined in the following description can be applied to other embodiments, deformation program, improvement project, equivalent and not deviate from the other technologies scheme of the spirit and scope of the present invention.
It is the vibration unit 100 according to first preferred embodiment of the present invention as shown in Fig. 3 to Fig. 5 B, it comprises the vibrating elements 10 being positioned at centre, be positioned at the outstanding limit structure around described vibrating elements 10, described outstanding limit structure comprises an elastic suspended limit 20, and is positioned at the framework 30 around described elastic suspended limit 20.That is, described elastic suspended limit 20, it is made up of elastomeric material, and extends between described vibrating elements 10 and described framework 30, to limit the vibration of described vibrating elements.Described vibrating elements 10 can be circular, oval, square or other polygons, and in this preferred embodiment, described vibrating elements 10 is oval.Described elastic suspended limit 20 also correspondingly forms substantially elliptical around described vibrating elements 10.Described framework 30 can be various shape, and the present invention is unrestricted in this regard.
In this preferred embodiment, described vibration unit 100 also comprises multiple spacing rib 40, multiple described spacing rib 40 extends between described vibrating elements 10 and described framework 30, thus forms the structure of height fluctuating between described vibrating elements 10 and described framework 30.Described spacing rib 40, for position-limiting action, departs from the displacement of its central shaft to prevent described vibrating elements 10.More particularly, when described vibrating elements 10 will depart from its central shaft and produce skew, corresponding described spacing rib 40 will produce reverse pulling force, to offset the biasing force causing described vibrating elements 10 to produce skew.It is worth mentioning that, described spacing rib 40 can be extend along the direction that the outer surface with corresponding described vibrating elements 10 is vertical with the inner peripheral surface of corresponding described framework 30, as shown in Figure 3, also can be arrange along the radial direction of described vibration unit 10, or arrange obliquely.This arrangement mode can produce accordingly along the pulling force in these directions, thus effectively prevents described vibrating elements from producing skew along these directions.
It is worth mentioning that, these spacing ribs 40 can be arranged in described vibrating elements 10 around equably, and symmetrically can arrange relative to the center of described vibrating elements 10.As an example, as shown in Figure 3, these spacing ribs 40 comprise the spacing rib 401 in left side and the spacing rib 402 in right side.When described vibration unit about 100 is placed and when normally working, described vibrating elements 10 axially moves up and down, when described vibrating elements 10 is wanted to offset left, the spacing rib 402 in described right side reversal interlocking relay to the right can be subject to immediately, thus stop described vibrating elements 10 to offset further left.Otherwise, when described vibrating elements 10 is wanted to offset to the right, the spacing rib 401 in described left side reversal interlocking relay left can be subject to immediately, thus stop described vibrating elements 10 to offset further to the right.Like this, the direction of vibration of described vibrating elements 10 can be limited on above-below direction axially by described elastic suspended limit 20 and described spacing rib 40 effectively.
Described elastic suspended limit 20 can be the structure had shown in Fig. 1, itself and described vibrating elements 10 are arranged coaxially, and along in the radial direction of described vibrating elements 10, its cross section forms waveform or arch, as shown in Figure 5 B, the central shaft thus along described vibrating elements 10 can form annular rib.It is worth mentioning that, spacing rib 40 described in each is arranged from described elastic suspended limit 20 projection, with the circumferentially formation height relief fabric at described vibrating elements 10.That is, described " waveform " of the present invention can not be the wave-like that strict similar water is formed, but can be formed with pleated structure or similar watt of rib paper structure around described vibrating elements 10.
As shown in Figure 3, described elastic suspended limit 20 is divided into multiple outstanding limits section 201 in fact by multiple described spacing rib 40.The quantity of described spacing rib 40 is unrestricted, and it can adjust according to different needs.In example in figure 3, described elastic suspended limit 20 is separated into 8 described outstanding limit sections 201 by 8 described spacing ribs 40.Described in each, spacing rib 40 is also made up of elastomeric material, and it can be made up of same elastomeric material with described elastic suspended limit 20, also can be made up of different elastomeric materials.When described spacing rib 40 is made up of same material with described elastic suspended limit 20, multiple described spacing rib 40 can be one-body molded with described elastic suspended limit 20.That is, can in an injection step, use a mould to inject predetermined elastomeric material, thus make with the assembly of multiple described spacing rib 40 with described elastic suspended limit 20 simultaneously.It is worth mentioning that, in forming process, described predetermined elastomeric material also can be coated on described vibrating elements 10, thus forms an elastomeric overmold layer 12.That is, described vibrating elements 10 can comprise inner vibration weight 11 and outside elastomeric overmold layer 12.It is worth mentioning that, described elastic suspended limit 20 and described spacing rib 40 also can utilize conventional method bonding with described framework 30 and described vibrating elements 10 by glue.
It is worth mentioning that, as shown in Figure 5 B, the domes on described elastic suspended limit 20 can form an annular recess 202.Spacing rib 40 described in each can be arranged on to outwardly convex both sides, described elastic suspended limit 20, or is only arranged on the side on described elastic suspended limit 10.In this preferred embodiment, described in each, spacing rib 40 and described annular recess 202 are positioned at the both sides on described elastic suspended limit 20, that is, described in each, spacing rib 40 does not extend into described annular recess 202, and just extend in the side on described elastic suspended limit 10, as shown in Figure 5 B, it extends in the upside on described elastic suspended limit 10 protrudingly.And form groove 203 between adjacent two described spacing ribs 40, thus described elastic suspended limit 20 and described spacing rib 40 define the structure that height rises and falls around described vibrating elements 10.
As shown in Fig. 3 and Fig. 5 A, spacing rib 40 cross section described in each can triangular in shape, also can trapezoidal, rhombus etc., thus can play the effect of being firmly located by connecting, again can not the axial motion of vibrating elements 10 described in overslaugh.More specifically, in the example shown in Fig. 3 and Fig. 5 A, in the form of sheets, and cross section is triangular in shape for spacing rib 40 described in each.The spacing rib of described triangle 40 can be connected with described vibrating elements 10 by a leg-of-mutton base, a leg-of-mutton summit is connected with described framework 30, or can be connected with described framework 30 by a leg-of-mutton base, a leg-of-mutton summit is connected with described vibrating elements 10.
Preferably, spacing rib 40 comprise vibratory elements link 41 and framework link 42 described in each.Described vibrating elements link 41 is that line is connected with the outer surface 101 of described vibrating elements 10, that is to say that the leg-of-mutton base of described spacing rib 40 contacts with the outer surface 101 of described vibrating elements 10 and is connected.Described framework link 42 and the inner peripheral surface 301 of described framework 30 to be connected, and that is to say that the vertex of a triangle of described spacing rib 40 contacts with the inner peripheral surface 301 of described framework 30 and is connected.It is worth mentioning that, the triangle of the cross section formation of described spacing rib 40 can be the shape of arbitrary triangle, as right-angled triangle, isosceles triangle, and can form equilateral triangle.It is worth mentioning that, each limit of triangle here can be straight line, also can be curve, and in the example in fig. 5, the part that spacing rib 40 described in each is connected with described elastic suspended limit 20 can be in arc line shaped.
It is worth mentioning that, this design makes described spacing rib 40 be greater than the bonding strength with described framework 30 with the bonding strength of described vibrating elements 10.Thus while the described vibrating elements 10 of prevention produces skew, the thrust making the described vibrating elements of promotion 10 move vertically is unlikely to be delivered to described framework 30 soon, and makes the stroke of described vibrating elements 10 and axial displacement not be much affected.That is, what described framework 30 applied described spacing rib 40 is unlikely to be passed to described vibrating elements 10 fast by the pulling force that described vibrating elements 10 retracts its initial position, but makes described vibrating elements 10 reach maximum axial displacement as far as possible.In other words, when described spacing rib 40 can not be made just to have started axial displacement from the initial position of centre, shorten axial displacement with regard to being subject to being with the effect from the restoring force of described framework 30 at once.
That is, as shown in Figure 2A and 2B, ribs 4 and vibrating mass 1 and external frame 3 are all that line is connected, and in the form of a substantially rectangular, such ribs 4 two ends by the same with the syndeton of vibrating mass 1 and external frame 3, thus have identical bonding strength in cross section.Like this, the pulling force retracting vibrating mass 1 that external frame 3 and ribs 4 play can be applied on vibrating mass 1 in real time, and causes the axial displacement of vibrating mass 1 also to have an impact.That is, although ribs 4 can play the effect of the skew of certain minimizing vibrating mass 1, serious adverse influence is created to the stroke of vibrating mass 1 simultaneously.And the present invention makes spacing rib 40 one end described in each and described framework 30 be formed a little is connected, and the other end and described vibrating elements 10 form line is connected, can play and prevent rocking and offseting of described vibrating elements 10, the axial displacement of described vibrating elements 10 can not be affected again.
As the vibration unit 100A that Fig. 6 to Figure 11 B is according to second preferred embodiment of the present invention, its comprise vibratory elements 10A, the waveform be centered around around described vibrating elements 10A hangs limit structure, and described waveform is hanged limit structure and comprised elastic suspended limit 20A, and framework 30A.Described elastic suspended limit 20A extends between described vibrating elements 10A and described framework 30A.In this embodiment, described elastic suspended limit 20A circumferentially forms wavy shaped configuration around described vibrating elements 10A.
Particularly, described elastic suspended limit 20A comprises the multiple waveforms spacing section of 21A circumferentially arranged, thus multiple described waveform spacing section of 21A formation wavy shaped configuration around described vibrating elements 10A.And the outstanding limit 2 in Fig. 1 is just formed with arch or waveform configuration in the radial direction of vibrating mass 1, thus effectively can not play the skew effect preventing described vibrating elements 10A.
Multiple described waveform of the present invention spacing section of 21A is used for position-limiting action, departs from the displacement of its central shaft X to prevent described vibrating elements 10A.More particularly, when described vibrating elements 10A will depart from its central shaft X and produce the skew in certain direction, corresponding described waveform spacing section of 21A will produce rightabout pulling force, to offset the biasing force causing described vibrating elements 10A to produce skew.It is worth mentioning that, these waveforms spacing section of 21A can be arranged in around described vibrating elements 10A equably, and symmetrically can arrange relative to the center of described vibrating elements 10A.
As an example, as shown in Figure 6, multiple described waveform spacing section of 21A comprises left side waveform spacing section of 21A and right side waveform spacing section of 21A.When described vibration unit 100A places up and down and normally works, described vibrating elements 10A moves up and down along X axis, when described vibrating elements 10A wants to move along the Y-axis left avertence shown in Fig. 6, described right side waveform spacing section of 21A reversal interlocking relay to the right can be subject to immediately, thus stop described vibrating elements 10A to offset further left.Otherwise, when described vibrating elements 10A wants to move along the Y-axis right avertence shown in Fig. 6, described left side waveform spacing section of 21A reversal interlocking relay left can be subject to immediately, thus stop described vibrating elements 10A to offset further to the right.Like this, the direction of vibration of described vibrating elements 10A can be limited in along on the above-below direction of X-axis by described elastic suspended limit 20A effectively.
The spacing section of 21A comprise vibratory elements link 211A and framework link 212A of waveform described in each.As shown in Figure 8, described vibrating elements link 211A can be in wave shape on cross section circumferentially, and be connected with the outer surface 101A of described vibrating elements 10A.And described framework link 212A is an outer rim, it is connected to the inner peripheral surface 301A of described framework 30A.More specifically, as more detailed description, as shown in Figure 8, in this preferred embodiment, described vibrating elements link 211A connects site 2111A and 2112A on the downside of can having two, and connection site, upside 2113A.Connect the line that site 2111A and 2112A be connected with upside between the 2113A of site on the downside of in the of described two and can form triangle.And extend three of obtaining be connected site 2121A, 2122A and 2123A from connecting the inner peripheral surface 301A of site 2111A with 2112A and connection site, upside 2113A to described framework 30A on the downside of described two respectively, these three connect site 2121A, 2122A and 2123A and are all formed on described framework link 212A, and these three lines connected between site 2121A, 2122A and 2123A extend and curved line segment along described framework inner peripheral surface.That is, in this embodiment, described waveform spacing section of 21A has inner edge and outer rim, its inner edge be connected with the outer surface 101A of described vibrating elements 10A is in wave shape, or be called arch, the outer rim that described waveform spacing section of 21A is connected with the inner peripheral surface 301A of described framework 30A to extend and curved along the inner peripheral surface 301A of described framework 30A, and is positioned on the same plane perpendicular to described vibrating elements central shaft X.
Alternatively, the vibrating elements link 211A of the spacing section of 21A of waveform described in each is divided into two parts, between described two parts can shape at an angle.The described angle formed can be acute angle, right angle or obtuse angle.
This wavy shaped configuration of the present invention can stop described vibrating elements 10A to produce skew, and the thrust making promotion described vibrating elements 10A move vertically is unlikely to be delivered to described framework 30A soon, and makes the stroke of described vibrating elements 10A and axial displacement not be much affected.That is, what described framework 30A applied described waveform spacing section of 21A is unlikely to be passed to described vibrating elements 10 fast by the pulling force that described vibrating elements 10A retracts its initial position, but makes described vibrating elements 10A reach maximum axial displacement as far as possible.
It is worth mentioning that, in this preferred embodiment, the bonding strength of described waveform spacing section of 21A and described vibrating elements 10A is greater than the bonding strength with described framework 30A, namely the syndeton of described waveform spacing section of 21A inner edge and described vibrating elements 10A is triangular in shape, more firm, thus stronger than the connection between outer rim and described framework 30.It may occur to persons skilled in the art that, its connected mode also can be contrary.Namely the syndeton of described waveform spacing section of 21A outer rim and described framework 30A is triangular in shape, and the connection between outer rim and described vibrating elements 10A is positioned at conplane arc, instead of the shape that just rises and falls.
In addition, between adjacent two described waveforms spacing section of 21A, define groove 203A, thus circumferentially form a series of groove 203A arranged apart from one another by ground along described vibrating elements 10, thus define wavy shaped configuration.
It is worth mentioning that, spacing section of the waveform of this preferred embodiment of the present invention can use a mould inject predetermined elastomeric material and form in an injection step.It is worth mentioning that, in forming process, described predetermined elastomeric material also can be coated on described vibrating elements 10A, thus forms an elastomeric overmold layer 12A.That is, described vibrating elements 10A can comprise inner vibration weight 11A and outside elastomeric overmold layer 12A, as shown in Figure 9.It is worth mentioning that, described elastic suspended limit 20A also can utilize conventional method bonding with described framework 30A and described vibrating elements 10A by glue.
Figure 12 to Figure 15 is a kind of variant embodiment of this preferred embodiment of the present invention, the similar in its structure and this preferred embodiment, and difference is that described waveform spacing section of 21A forms the height of ripple.As shown in Figure 9, the crest location of the spacing section of 21A of waveform described in each can lower than the outer surface 102A of described vibrating elements 10A, and can lower than the outer surface 302A of described framework 30A.And as shown in Figure 15, the crest location of the spacing section of 21A ' of waveform described in each can higher than the outer surface 102A of described vibrating elements 10A, and can higher than the outer surface 302A of described framework 30A.
It is worth mentioning that, described vibration unit 100A resonance frequency obtained in this embodiment of the present invention is 5 – 200 hertz, described elastic suspended limit 20A material can be any thermoset rubber and thermoplastic elastomer (TPE), and has suitable hardness, such as Shore hardness 5-85A.The wave height that waveform described in each is spacing section 21: 1 – 50mm, ripple quantity: 2 – 100.The size of obtained described vibration unit can be 0.0005 – 0.2 square metre.It is worth mentioning that, these concrete numerical value only as an example, and are not subject to concrete restriction, can adjust as required in actual practicality.It is worth mentioning that, these data are also suitable for vibration unit obtained in other embodiments of the invention.
As shown in figs. 10 a and 10b, described vibration unit 100A in this preferred embodiment of the present invention can be used as the vibrational system of loud speaker 1000A, the described vibrating elements 10A of described vibration unit 100A is connected with voice coil loudspeaker voice coil 110A, described voice coil loudspeaker voice coil 110A and magnetic return system 120A electromagnetic induction, thus in described loud speaker 1000A during input audio signal, described voice coil loudspeaker voice coil 110A returns at described magnetic in the magnetic field of system 120A and moves back and forth, thus drives described vibrating elements 10A to vibrate back and forth to produce sound.And described elastic suspended limit 20A of the present invention by its wavy shaped configuration by the movement limit of described vibrating elements 10A in the axial direction, thus make the audio of generation purer.
As seen in figs. 11 a and 11b, the described vibration unit 100A in this preferred embodiment of the present invention can be used as the passive oscillating plate of loud speaker 1000A '.Particularly, loud speaker 1000A ' can comprise principal oscillation loudspeaker 1100A ', and vibration unit 100A.Described principal oscillation loudspeaker 1100A ' can respond the input of audio signal and vibrate generation sound.Described vibration unit 100A and described principal oscillation loudspeaker 1100A ' shares a vibration cavity 1200A ', when principal oscillation loudspeaker 1100A ' vibrates, by the change of described vibration cavity 1200A ' air pressure, described vibration unit 100A is also vibrated by driving and produces auxiliary audio, thus improve tonequality, particularly strengthen bass effect.
Described principal oscillation loudspeaker 1100A ' can be traditional horn structure, also can be the loudspeaker or loud speaker be made up of described vibration unit 100A of the present invention.Described loud speaker 1000A ' can comprise one or more described principal oscillation loudspeaker 1100A ' and one or more described vibration unit 100A.And described principal oscillation loudspeaker 1100A ' and described vibration unit 100A can be arranged shoulder to shoulder, as illustrated in figure 11 a, also can coaxially back-to-back arrange.
It is worth mentioning that, described loud speaker 1000A here and the passive oscillating plate of described loud speaker 1000A ' all employ the described vibration unit 100A of this preferred embodiment.The vibration unit of other embodiments also can be applied to the passive oscillating plate making described loud speaker 1000A and described loud speaker 1000A '.
The vibration unit 100B according to the 3rd preferred embodiment of the present invention as shown in Figure 16 to Figure 19, its comprise vibratory elements 10B, the waveform be centered around around described vibrating elements 10B hangs limit structure, and described waveform is hanged limit structure and comprised elastic suspended limit 20B, and framework 30B.Described elastic suspended limit 20B extends between described vibrating elements 10B and described framework 30B.In this embodiment, described elastic suspended limit 20B circumferentially forms wavy shaped configuration around described vibrating elements 10B.
Particularly, described elastic suspended limit 20B comprises the multiple waveforms spacing section of 21B circumferentially arranged, thus multiple described waveform spacing section of 21B formation wavy shaped configuration around described vibrating elements 10B.The similar of the described vibration unit 100A in the vibration unit 100B in this preferred embodiment and above-mentioned second preferred embodiment.Difference is, the two ends of the spacing section of 21B of waveform described in each, is the same by vibrating elements link 211B with the structure of framework link 212B.Namely the inner edge of the spacing section of 21B of waveform described in each and outer rim can be waveform or domes.As shown in Figure 18, summit, upside and the end, downside two point can form triangle after being connected to each other.
It is worth mentioning that, in this 3rd preferred embodiment, described vibrating elements 10B is rounded.Multiple described waveform spacing section of 21B can be arranged along the radial direction of described vibrating elements 10B, thus forms radial multiple radial waveform spacing section of 21B.That is, the straight line at the ripple extension place of the spacing section of 21B of waveform described in each all can pass the center of circle of described vibrating elements, thus arranges equably radially.Multiple described radial waveforms spacing section of 21B limits the position of described vibrating elements 10B diametrically, prevents described vibrating elements 10B along certain radial deflection, thus can only axially move.
The vibration unit 100C of the variant embodiment according to the 3rd preferred embodiment of the present invention as shown in Figure 20 to Figure 23, similarly, its comprise vibratory elements 10C, the waveform be centered around around described vibrating elements 10C hangs limit structure, described waveform is hanged limit structure and is comprised elastic suspended limit 20C, and framework 30C.Described elastic suspended limit 20C extends between described vibrating elements 10C and described framework 30C.In this embodiment, described elastic suspended limit 20C circumferentially forms wavy shaped configuration around described vibrating elements 10C.
Particularly, described elastic suspended limit 20C comprises many group connection rib 22C.Each group of connection rib 22 comprises at least one top side connection rib 221C, and at least one bottom side connection rib 222C of contiguous described top side connection rib 221C.Described elastic suspended limit 20C also comprises the linkage section 23C extending in and extend respectively between contiguous connection rib 22C (221C, 22C).
In this preferred embodiment of the present invention, the inner peripheral surface 301C of described top side connection rib 221C from the top side of the outer surface 101C of described vibrating elements 10C to described framework 30C extends, and the inner peripheral surface 301C of contiguous bottom side connection rib 222C from the bottom side of the outer surface 101C of described vibrating elements 10C to described framework 30C extends.Arc linkage section 23C is formed between described top side connection rib 221C and described bottom side connection rib 222C.
Described connection rib 22C is this alternately from the arrangement that top side and the bottom side of described vibrating elements 10C extend towards described framework 30C, makes described elastic suspended limit 20C define wavy shaped configuration around described vibrating elements 10C.Similarly, multiple groove 203C is also formed in around described vibrating elements 10C.
Described connection rib 22C and described linkage section 23C are made up of different elastomeric materials, also can be made up of same material.When described connection rib 22C is made up of same material with described linkage section 23C, described elastic suspended limit 20C by injecting a kind of elastomeric material in a mold and making described connection rib 22C and described linkage section 23C integrally formed, thus can obtain the structure of vibration unit 100B described in similar above-mentioned second embodiment.
Described vibrating elements 10C in this preferred embodiment of the present invention also can be circular, connection rib 22C described in these is arranged along the radial direction of described vibrating elements 10C like this, thus form multiple radial connection rib 22C, to play the spacing effect preventing the radial deflection of described vibrating elements 10C.
Be the vibration unit 100D according to the 4th preferred embodiment of the present invention, its comprise vibratory elements 10D as shown in Figure 24 to Figure 27, be centered around the elastic suspended limit 20D around described vibrating elements 10D, and framework 30D.Described elastic suspended limit 20D to extend between described vibrating elements 10D and described framework 30D and circumferentially form wavy shaped configuration around described vibrating elements 10D.
Wavy shaped configuration in the wavy shaped configuration of the vibration unit 100D of this preferred embodiment of the present invention and above-mentioned second embodiment is similar, and comprise the multiple waveforms spacing section of 21D be arranged on around described vibrating elements 10D, the spacing section of 21D of waveform described in each has vibrating elements link 211D and framework link 212D.The inner edge be connected with the outer surface 101D of described vibrating elements 10D and described vibrating elements link 211D do not form wedge angle, if connecting the figure that each summit obtains can be rectangle.In other words, different from the waveform of first three embodiment above-mentioned, the waveform of first three embodiment can form roughly sinusoidal waveform, and the waveform in this preferred embodiment is roughly square wave.It is expected that it also can be trapezoidal etc. that each summit above-mentioned connects the figure obtained.These structures can make formation groove 203D around described vibrating elements 10D, thus by a series of concaveconvex structure, form the contoured wavy shaped configuration of height.
It is worth mentioning that, the described vibration unit 100D in this embodiment of the present invention also can be obtained by the described vibration unit 100C conversion in above-mentioned 3rd embodiment.In many groups connection rib 22C of the i.e. described elastic suspended limit 20C of described vibration unit 100C, each group of connection rib 22 comprises two adjacent bezel connection rib 221C, and during the two bottom side connection rib 222C of contiguous two described top side connection rib 221C, the described vibration unit 100D in this embodiment of the present invention can be obtained.
It is worth mentioning that, similarly, 20D two ends, described elastic suspended limit can be the same with the syndeton between described vibrating elements 10D and described framework 30D, also can be different.Such as shown in Figure 26, inner edge and the described vibrating elements link 211D of the described waveform spacing section of 21D be connected from the outer surface 101D of described vibrating elements 10D can be the broken lines that different line segment forms, and the outer rim of the described waveform spacing section of 21D be connected with the inner peripheral surface 301D of described framework 30D and described framework link 212D only form a line segment, the bonding strength of described elastic suspended limit 20D and described vibrating elements 10D is made to be greater than the bonding strength with described framework 30 like this.
One skilled in the art will understand that the embodiments of the invention shown in foregoing description and accompanying drawing only limit the present invention as an example and not.Object of the present invention is complete and effectively realize.Function of the present invention and structural principle are shown in an embodiment and are illustrated, do not deviating under described principle, embodiments of the present invention can have any distortion or amendment.

Claims (57)

1. a waveform hangs limit structure, it is suitable for being arranged between a vibrating elements of a vibration unit and a framework, it is characterized in that, described waveform is hanged limit structure and is comprised an elastic suspended limit, wherein said elastic suspended limit to be arranged on around described vibrating elements and to extend between described vibrating elements and described framework, described elastic suspended limit comprises spacing section of multiple waveform, wherein spacing section of multiple described waveform circumferentially forms wavy shaped configuration around described vibrating elements, the direction of motion of described vibrating elements is limited in axially thus prevents rocking and offseting of described vibrating elements.
2. waveform as claimed in claim 1 hangs limit structure, it is characterized in that, form groove between spacing section adjacent of two described waveforms, thus form described wavy shaped configuration, the shape of described wavy shaped configuration is selected from the one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
3. waveform as claimed in claim 1 hangs limit structure, and it is characterized in that, spacing section of waveform described in each vertically extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework.
4. waveform as claimed in claim 1 hangs limit structure, and it is characterized in that, spacing section of waveform described in each extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework obliquely.
5. waveform as claimed in claim 1 hangs limit structure, it is characterized in that, be connected with described vibrating elements each described in the inner edge of spacing section of waveform in roughly sinusoidal waveform.
6. waveform as claimed in claim 1 hangs limit structure, it is characterized in that, be connected with described vibrating elements each described in the shape of inner edge of spacing section of waveform be selected from one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
7. waveform as claimed in claim 5 hangs limit structure, it is characterized in that, be connected with described framework each described in the outer rim of spacing section of waveform be arc line shaped circumferentially.
8. waveform as claimed in claim 5 hangs limit structure, it is characterized in that, be connected with described framework each described in the outer rim of spacing section of waveform in roughly sinusoidal waveform.
9. waveform as claimed in claim 6 hangs limit structure, it is characterized in that, be connected with described framework each described in the outer rim of spacing section of waveform be arc line shaped circumferentially.
10. waveform as claimed in claim 6 hangs limit structure, it is characterized in that, be connected with described framework each described in the shape of outer rim of spacing section of waveform be selected from one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
11. waveforms as claimed in claim 1 hang limit structure, it is characterized in that, be connected with described vibrating elements each described in the vibrating elements link of spacing section of waveform comprise two parts, and between two parts of described vibrating elements link shape is in an angle.
12. waveforms as claimed in claim 11 hang limit structure, it is characterized in that, be connected with described framework each described in the framework link of spacing section of waveform comprise two parts, and between two parts of described framework link link shape is in an angle.
13. waveforms as claimed in claim 11 hang limit structure, it is characterized in that, be connected with described framework each described in the framework link of spacing section of waveform be connected to each other and form loop wire shape outer rim, and described annular outer edge and described vibrating elements coaxial.
14. waveforms as claimed in claim 11 hang limit structure, and it is characterized in that, the angle formed between two parts of described vibrating elements link is acute angle, right angle or obtuse angle.
15. waveforms as claimed in claim 1 hang limit structure, and it is characterized in that, the crest location that waveform described in each is spacing section is lower than the plane at the outer surface place of described vibrating elements.
16. waveforms as claimed in claim 1 hang limit structure, it is characterized in that, the crest location of spacing section of part or all of described waveform is higher than the plane at the outer surface place of described vibrating elements.
17. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, and it is characterized in that, spacing section of multiple described waveform symmetrically is arranged relative to the center of described vibrating elements.
18. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, it is characterized in that, the one in the shape selected from circles of described vibrating elements, ellipse, rectangle and polygon.
19. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, it is characterized in that, the shape of described vibrating elements is circular, and the spacing section of radial direction along described vibrating elements of waveform described in each is arranged, thus forms radial spacing section of multiple described waveform.
20. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, and it is characterized in that, the quantity that described waveform is spacing section is 2-100, and the wave height that waveform described in each is spacing section is 1-50mm.
21. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, and it is characterized in that, the size of described vibration unit is 0.0005-0.2 square metre.
22. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, it is characterized in that, described vibrating elements comprises a vibration weight, and is coated on a coating layer of described vibration weight, and the material of described coating layer is identical with the material on described elastic suspended limit.
23. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, it is characterized in that, described elastic suspended limit and described framework and described vibrating elements bond together.
24. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, and it is characterized in that, described vibration unit is for connecting a voice coil loudspeaker voice coil, and described voice coil loudspeaker voice coil is coupled to a magnetic and returns system, thus is assembled into a loud speaker.
25. hang limit structure as the waveform as described in arbitrary in claim 1 to 16, it is characterized in that, described vibration unit is as a passive oscillating plate, a vibration cavity is shared with at least one principal oscillation loudspeaker, when described principal oscillation horns blared is answered the input of audio signal and vibrates, by the change of the air pressure in described vibration cavity, described vibration unit is vibrated by driving, to produce auxiliary audio.
26. waveforms as claimed in claim 22 hang limit structure, it is characterized in that, described vibration unit and described principal oscillation loudspeaker are arranged shoulder to shoulder.
27. waveforms as claimed in claim 22 hang limit structure, it is characterized in that, described vibration unit and described principal oscillation loudspeaker are back-to-back arranged coaxially.
28. 1 kinds of waveforms hang limit structure, it is suitable for being arranged between a vibrating elements of a vibration unit and a framework, it is characterized in that, described waveform is hanged limit structure and is comprised an elastic suspended limit, wherein said elastic suspended limit to be arranged on around described vibrating elements and to extend between described vibrating elements and described framework, described elastic suspended limit comprises organizes connection rib more, wherein the described connection rib of each group comprises at least one top side connection rib and at least one bottom side connection rib, the inner peripheral surface of described top side connection rib from the top side of the outer surface of described vibrating elements to described framework extends, the described bottom side connection rib of the contiguous described top side connection rib inner peripheral surface from the bottom side of the outer surface of described vibrating elements to described framework extends, wherein form an arc linkage section between adjacent described connection rib, thus make described elastic suspended limit formation wavy shaped configuration around described vibrating elements.
29. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, form groove between arc linkage section described in each, thus form described wavy shaped configuration, the shape of described wavy shaped configuration is selected from the one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
30. waveforms as claimed in claim 28 hang limit structure, and it is characterized in that, connection rib described in each is made up of different elastomeric materials from described linkage section.
31. waveforms as claimed in claim 28 hang limit structure, and it is characterized in that, connection rib described in each is made up of identical elastomeric material with described linkage section.
32. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, between two adjacent described arc linkage sections, shape in an angle.
33. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, wherein the described connection rib of each group comprises a top side connection rib and a bottom side connection rib, and makes the cross section of the inner edge on the described elastic suspended limit be connected with described vibrating elements form roughly sinusoidal waveform.
34. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, wherein the described connection rib of each group comprises two top side connection ribs and two bottom side connection ribs, described in two, bottom side connection rib lays respectively at the both sides of described top side connection rib, and makes the cross sectional shape of the inner edge on the described elastic suspended limit be connected with described vibrating elements be selected from one in sinusoidal waveform, square waveform, triangular waveform and sawtooth waveform.
35. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, top side connection rib described in each extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework vertically or obliquely.
36. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, bottom side connection rib described in each extends from the outer surface of described vibrating elements to the inner peripheral surface of described framework vertically or obliquely.
37. waveforms as claimed in claim 28 hang limit structure, it is characterized in that, the framework link on the described elastic suspended limit be connected with the inner peripheral surface of described framework forms loop wire shape outer rim, and described annular outer edge and described vibrating elements coaxial.
38. hang limit structure as the waveform as described in arbitrary in claim 28 to 37, it is characterized in that, the one in the shape selected from circles of described vibrating elements, ellipse, rectangle and polygon.
39. hang limit structure as the waveform as described in arbitrary in claim 28 to 37, and it is characterized in that, the shape of described vibrating elements is circular, and connection rib described in each is arranged along the radial direction of described vibrating elements.
40. hang limit structure as the waveform as described in arbitrary in claim 28 to 37, it is characterized in that, described vibrating elements comprises a vibration weight, and is coated on a coating layer of described vibration weight, and the material of described coating layer is identical with the material on described elastic suspended limit.
41. hang limit structure as the waveform as described in arbitrary in claim 28 to 37, it is characterized in that, described elastic suspended limit and described framework and described vibrating elements bond together.
42. hang limit structure as the waveform as described in arbitrary in claim 28 to 37, and it is characterized in that, described vibration unit is for connecting a voice coil loudspeaker voice coil, and described voice coil loudspeaker voice coil is coupled to a magnetic and returns system, thus is assembled into a loud speaker.
43. hang limit structure as the waveform as described in arbitrary in claim 28 to 37, it is characterized in that, described vibration unit is as a passive oscillating plate, a vibration cavity is shared with at least one principal oscillation loudspeaker, when described principal oscillation horns blared is answered the input of audio signal and vibrates, by the change of the air pressure in described vibration cavity, described vibration unit is vibrated by driving, to produce auxiliary audio.
44. waveforms as claimed in claim 43 hang limit structure, it is characterized in that, described vibration unit and described principal oscillation loudspeaker are arranged shoulder to shoulder.
45. waveforms as claimed in claim 43 hang limit structure, it is characterized in that, described vibration unit and described principal oscillation loudspeaker are back-to-back arranged coaxially.
46. 1 kinds of waveforms hang limit structure, it is suitable for being arranged between a vibrating elements of a vibration unit and a framework, it is characterized in that, described waveform is hanged limit structure and is comprised an elastic suspended limit, wherein said elastic suspended limit to be arranged on around described vibrating elements and to extend between described vibrating elements and described framework, and described elastic suspended limit forms multiple groove arranged apart from one another by ground around described vibrating elements, multiple described groove is along annular array, and the circumferencial direction making described elastic suspended edge described vibrating elements forms wavy shaped configuration, the direction of motion of described vibrating elements is limited in axially by described elastic suspended limit.
47. waveforms as claimed in claim 46 hang limit structure, and it is characterized in that, multiple described groove arranges radially.
48. waveforms as claimed in claim 46 hang limit structure, and it is characterized in that, multiple described groove symmetrically arranges relative to the center of described vibrating elements.
49. waveforms as claimed in claim 46 hang limit structure, it is characterized in that, described elastic suspended limit comprises multiple arc linkage section, forms described groove between adjacent two described arc linkage sections, and adjacent two described grooves lay respectively at the two opposite sides on described elastic suspended limit.
50. waveforms as claimed in claim 46 hang limit structure, it is characterized in that, the quantity of described groove is 2-100.
51. hang limit structure as the waveform as described in arbitrary in claim 46 to 51, and it is characterized in that, the outer rim on described elastic suspended limit is loop wire shape, and coaxial with described vibrating elements.
52. hang limit structure as the waveform as described in arbitrary in claim 46 to 51, and it is characterized in that, the shape of the outer rim on described elastic suspended limit is selected from the one in ring-type sinusoidal waveform, ring-type square waveform, ring-type triangular waveform and ring-type sawtooth waveform.
53. hang limit structure as the waveform as described in arbitrary in claim 46 to 51, and it is characterized in that, the shape of the inner edge on described elastic suspended limit is selected from the one in ring-type sinusoidal waveform, ring-type square waveform, ring-type triangular waveform and ring-type sawtooth waveform.
54. hang limit structure as the waveform as described in arbitrary in claim 46 to 51, and it is characterized in that, described vibration unit is for connecting a voice coil loudspeaker voice coil, and described voice coil loudspeaker voice coil is coupled to a magnetic and returns system, thus is assembled into a loud speaker.
55. hang limit structure as the waveform as described in arbitrary in claim 46 to 51, it is characterized in that, described vibration unit is as a passive oscillating plate, a vibration cavity is shared with at least one principal oscillation loudspeaker, when described principal oscillation horns blared is answered the input of audio signal and vibrates, by the change of the air pressure in described vibration cavity, described vibration unit is vibrated by driving, to produce auxiliary audio.
56. waveforms as claimed in claim 55 hang limit structure, it is characterized in that, described vibration unit and described principal oscillation loudspeaker are arranged shoulder to shoulder.
57. waveforms as claimed in claim 55 hang limit structure, it is characterized in that, described vibration unit and described principal oscillation loudspeaker are back-to-back arranged coaxially.
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PCT/CN2015/070682 WO2015106685A1 (en) 2014-01-16 2015-01-14 Wave-shaped suspension edge structure and vibration unit

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EP3096537A1 (en) 2016-11-23

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