616results about "Single transducer incorporation" patented technology

A semiconductor processing system including a semiconductor processing apparatus and a gas supply apparatus for supplying a process gas into the semiconductor processing apparatus includes a control section configured to control an operation of a pressure adjusting mechanism for adjusting the pressure inside a vaporizing chamber. The control section is preset to cause the pressure inside the vaporizing chamber to fall within a predetermined pressure range with reference to a pressure detection value obtained by a pressure detector. The predetermined pressure range is defined by an upper limit lower than a first limit value, at which vaporization of the liquid material starts being inhibited due to an increase in the pressure, and a lower limit higher than a second limit value, at which vaporization of the liquid material starts being unstable and the pressure inside the vaporizing chamber starts pulsating movement due to a decrease in the pressure.

Disclosed herein are systems for housing an electronic audio device in harsh environments including aquatic and rugged environments. In one embodiment, a system is disclosed for allowing a user to control an audio device having a capacitive touch sensitive control feature from outside of a waterproof housing.

A handheld computing device is disclosed. The handheld computing device includes a seamless housing formed from an extruded tube. The extruded tube includes open ends and internal rails which serve as a guide for slidably assembling an operational assembly through the open ends of the extruded tube, a reference surface for positioning the operational assembly relative to an access opening in the seamless housing, and a support structure for supporting the operational assembly during use.

A ceiling tile adapted to be supported in an overhead opening and function as a loudspeaker. The tile is in the form of a distributed mode acoustic radiator with a transducer mounted wholly and exclusively on the radiator at a location for coupling to resonant bending wave modes so as to vibrate the radiator and cause it to resonate.

A microphone assembly includes a cover, a substrate, at least one wall disposed and between and attached to the cover and the substrate, an acoustic transducer acoustically sealed to the lid, and an interposer. The interposer and the acoustic transducer are electrically connected without using the lid as an electrical conduit. The transducer and interposer are disposed one above the other and the transducer is supported by the interposer or by a pedestal.

An audio signal analysis method is provided for detecting the opening and closing of a medicine bottle cap in a robust manner using a micro speaker and a microphone along with associated mixed signal electronics. It is also used for robust tamper detection and for monitoring liquid medication consumption accurately. In a preferred embodiment an un-modulated OFDM signal is used that covers the entire operating audio spectrum. In another embodiment, Complimentary code based phase encoding of the subcarrier phases is used to reduce the peak to average power of the OFDM signal, thereby enabling higher transmit power of the audio signal to mitigate against interference. A suitable wireless device can be co-located with the mixed signal electronics for sending the bottle usage, medication reminder alarm, and tamper status to the medication compliance monitoring system or to the user's cell phone. In some embodiments of the patent, electrical capacitance sensing is used to determine if the bottle is opened or closed.

Loudspeaker system including a housing and at least four transducers arranged therein. Each transducer includes a substantially circular diaphragm and the diaphragms are constructed with specific sizes such that the ratio of a diameter of each diaphragm to the diameter of an immediately larger diaphragm is between 1:1 and 1:Phi2 (Phi=1+√5 / 2), preferably 1:Phi, and the ratio of the diameter of each diaphragm to an immediately smaller diaphragm is between 1:1 and 1:(1 / Phi2), preferably 1:1 / Phi. Moreover, the diaphragms are arranged such that centers thereof lie on a spiral, clockwise or counterclockwise, in ascending size order with the center of the smallest diaphragm being closest to the pole of the spiral. A microphone and single-diaphragm loudspeaker in which the diaphragm has a spiral shape are also disclosed.

A microphone package includes a sound detection unit, which further includes a microphone chip for detecting sound and a control circuit for controlling the microphone chip, a substrate having a mount surface for mounting the microphone chip and the control circuit and a ring-shaped side wall, which projects upwardly from the mount surface so as to surround the sound detection unit, and a cover that is arranged above the substrate so as to form a hollow cavity with the mount surface and the ring-shaped side wall of the substrate. A sound hole establishing communication between the cavity and the external space is formed in a prescribed position of the substrate or the cover, wherein a recess or a projection is formed inside of the cover. A directional regulator is formed in the housing so as to block excessive pressure variations and environmental factors from being directed to the microphone chip.

A speaker system according to the present invention includes: a cabinet; at least one speaker unit fixed to the cabinet; and a gas adsorbent which is situated inside the cabinet and which is made from a porous material. The speaker unit is configured with moisture-proof component parts. In the speaker system, a tubular structure which has a tubular hollow for allowing ventilation between an inside and an outside of the cabinet is provided. A resonant frequency which is determined by an acoustic impedance of the tubular structure and an acoustic impedance of the cabinet is lower than a minimum resonant frequency of an acoustic impedance of the speaker system.

A speaker cabinet design for providing adjustability of the number of speaker cabinets contained in a speaker array comprises female connectors (50) along the front and back edges on the top and right sides. A user of the cabinet can attach a mating second cabinet to any side of the first cabinet by inserting male connector (40) in the pass through assembly and securing to the female connector at all locations on that side. A user can connect a second speaker cabinet in a series or parallel electrical connection. This allows the user to build up to the desired number of speakers without purchasing a full speaker array. Furthermore, once the desired array is complete the user can remove only the number needed for transport. A variety of different speakers can be preloaded in the cabinet at the factory, thus giving the user flexibility in sound without having to remove and install different speakers.

The present invention outputs a sound with favorable sound quality and volume, while inhibiting degradation in frequency characteristics and reduction in volume, with a structure in which a speaker is provided on the rear-face side of a display panel. A display device includes: a display panel that displays an image; a housing to which the display panel is attached; and a speaker provided inside the housing on the rear-face side of the display panel. The speaker axis (x) of the speaker is inclined toward the outside in the horizontal direction of the display panel with respect to the normal line (y) to the display surface of the display panel, and the directivity of the speaker is arranged outward and obliquely rearward of the display device. The housing has one or more sound output holes for outputting the sound emitted from the speaker to the outside, the sound output hole(s) being located more toward the outside than the speaker axis (x). The housing also has one or more tone-control sound output holes located more toward the inside in the horizontal direction of the display device than the sound output hole(s).

A portable audio device with microphone and controller includes a generally portable housing; an aperture in the housing having sides sloped between 15 and 45 degrees relative to a central axis of the aperture with a large end that opens out of the housing and a small end that opens into the housing; a microphone inside the housing, in line with the aperture, so that sound enters the device and passes to the microphone; an audio output that provides an audio signal representing the sound; a meter on the housing that displays an input level for the microphone and an output level for the audio output; and a controller that controls the input level and the output level. An elastomer dampener for the microphone resists vibrations. Other inputs include an external connection for a musical instrument, second microphone or other input with a 48-volt power source.

A speaker system includes a cabinet, at least one speaker unit fixed to the cabinet, and a gas adsorbent which is situated inside the cabinet and which is made from a porous material. The speaker unit is configured with moisture-proof component parts. In the speaker system, a tubular structure which has a tubular hollow allows ventilation between an inside and an outside of the cabinet. A resonant frequency which is determined by an acoustic impedance of the tubular structure and an acoustic impedance of the cabinet is lower than a minimum resonant frequency of an acoustic impedance of the speaker system.

A microphone structure has a diaphragm; a frame of which an inside is processed in a shape of a semispherical surface, a parabolic surface, or a conical surface; an acoustic transducer that converts sound pressure into an electric signal; and a wire that transmits the electric signal from the acoustic transducer to outside. A sound pressure input surface of the acoustic transducer is disposed on a bottom surface portion of the semispherical surface, the parabolic surface, or the conical surface inside the frame. The diaphragm and the frame, and the frame and the wire include waterproof mechanisms preventing ingress of water.

A speaker assembly is disclosed that includes a conductive support that provides mechanical support for the speaker assembly. The conductive support is configured to function as an antenna. A wireless device is disclosed that includes a speaker assembly including a conductive support that provides mechanical support for the speaker assembly, and includes a transceiver coupled to the conductive support and configured to communicate radio frequency signals using the conductive support. A method is disclosed that includes providing a speaker assembly including a conductive support that provides mechanical support for the speaker assembly, and providing a transceiver operable to communicate radio frequency signals using the conductive support.

A subwoofer cabinet having a volume less that 1 ft3 axially aligned openings in opposed cabinet walls; first and second cages mounted on respective ones of the walls in alignment with the openings; a voice coil driven driver including an annular 225 oz. magnet affixed to the first cage; a stationary pole piece extending through the magnet and defining a magnetic gap therebetween; a voice coil mounted on a cylindrical voice coil former positioned within the gap; a cone affixed to one end of the former; a first flexible surround secured to the outer end of the cone and attached at its periphery to the first cage; a flexible spider secured to the former and at its outer periphery to the first cage; a mass driven driver including a 1.7 lb. mass; a second flexible surround secured to the mass and to the second cage; a flexible spider attached to the second cage and to the mass; both surrounds having a uniform thickness of at least 0.1″, an edgeroll having a diameter of at least 1.5″, and capable of standing off internal pressures of 1.5 lbs. / in2 to 3 lbs. / in2; a drive amplifier capable of delivering 2,700 watts to a nominal 4 ohm resistive load and swinging 104 volts for delivering (+)-v and (−)-v drive signals to the voice coil for driving the voice coil driven driver through a peak-to-peak stroke of about 2.5″ while generating a large back emf sufficient to counter the applied emf and minimize current flow in the voice coil.

A speaker assembly is configured for assembly to a housing. The housing defines a through hole and a receiving groove communicating with each other. The speaker assembly includes a speaker and a speaker cover. The speaker is received in the through hole. The speaker cover has an extending edge beyond a peripheral wall of the speaker and is received in the receiving groove.

A mobile phone and an acoustic box structure thereof are provided. The mobile phone includes a shell containing a printed circuit board (PCB) and a hidden antenna therein. The acoustic box structure is disposed between the PCB and the hidden antenna. The acoustic box structure includes a main body, a loudspeaker accommodated in the main body and a frame located between the PCB and the main body. Due to the design of the frame, a hermetic space is framed between the PCB and the main body, thereby preventing sound waves generated by the loudspeaker from leaking out via a gap between the main body and the PCB. Furthermore, the frame made of shockproof materials decreases the resonant transfer between the PCB and the loudspeaker. Consequently, the quality of the sound made by the mobile phone is improved.

An electronic apparatus having a resonance structure for providing smooth resonance of a speaker sound of a speaker device is provided. The electronic apparatus includes an upper case frame, a lower case frame adapted to be joined with the upper case frame and have a sealing structure for joining the lower case frame and the upper case frame, a speaker device fixed to an inner surface of one of the upper case frame and the lower case frame, and a board electrically connected with speaker terminals of the speaker device when the upper case frame and the lower case frame are joined and, wherein a sealing space formed by the sealing structure creates a resonance space of the speaker device.

The invention provides a loudspeaker module. The loudspeaker module comprises a shell and a loudspeaker monomer contained in the shell, wherein the loudspeaker monomer divides a cavity formed by the shell into a front vocal cavity and a rear vocal cavity; the rear vocal cavity is filled with acoustic materials; heteroatoms are doped in the crystal structures of the acoustic materials. The loudspeaker module provided by the invention can reduce the adsorption of acoustic materials inside the loudspeaker module to heterogeneous molecules, and even reject the heterogeneous molecules, so as to guarantee that the acoustic materials are long-term effective and improve the stability of the acoustical property of the loudspeaker module.

A laser welded speaker, comprising a magnet, a voice coil disposed around the magnet, a vibration plate fixedly disposed on the voice coil, and a housing for accommodating the magnet, the voice coil and the vibration plate is provided. The vibration plate comprises a vibration plate top arc and a vibration plate edge, the vibration plate top arc is surrounded by the vibration plate edge and is laser welded to the vibration plate edge, one of the vibration plate top arc and the vibration plate edge is made of a first laser-penetrable material, and the other is made of a first laser-absorbable material, wherein the first laser-penetrable material contains a first organic pigment, the first laser-penetrable material containing the first organic pigment is capable of being penetrated by a first infrared laser beam, and wavelength of the first infrared laser beam ranges from 700 nm to 1600 nm.

There is provided a microphone device which can positively prevent vibration noise caused by a microphone unit shaking its head back and forth. A microphone unit 24 is held by a unit mounter 23 composed of a plate-like elastic body 26, and the two upper and lower points of the unit mounter 23 are respectively fixed to upper and lower points of the microphone case, thereby preventing the microphone unit 24 from shaking its head.

A speaker apparatus which does not need insertion of a stand into a speaker box, and which can prevent vibrations occurring in a speaker unit from transmitting to the speaker box by the speaker apparatus itself is provided. Within a speaker box which can be divided into first and second half portions, a plurality of supports extending from a main body portion of a weight radially are fixed at a connecting portion of the speaker box by bolts. A driving portion of a speaker unit is coupled to the main body portion of the weight, and is supported inside the speaker box in a manner that vibrations do not transmit, by the main body portion of the weight acting as a virtual ground. In order to swing the speaker box, a stand and the speaker box are pivotally supported by a pivotally supporting mechanism.

A microphone unit is provided with an electroacoustic conversion portion that includes a diaphragm vibrated by sound pressure and that converts the sound pressure into electrical signals and a board on which the electroacoustic conversion portion is mounted. In the board, there are provided a board opening portion that is formed to face the diaphragm and locating walls that come in contact with the electroacoustic conversion portion to locate the electroacoustic conversion portion.

An electronic device 100 includes a signal converter 110 and a housing 120. The signal converter has a diaphragm 111 and, when one of an acoustic signal and an electric signal is inputted, converts the inputted signal into the other signal by the vibrations of the diaphragm. The housing is provided with an internal space SPD. The housing holds the signal converter in the internal space. The housing is provided with an opening 121. The housing has a bulkhead 122 dividing the internal space into plural division spaces including a first division space SPD1 and a second division space SPD2. The diaphragm configures at least part of a bulkhead forming the first division space. The housing is provided with a first communicating path that makes the first division space communicate with the opening, and a second communicating path that makes the second division space communicate with the opening.

An exemplary embodiment of the present invention docks a waterproof audio device into a recess in a top surface of a bodyboard (or other craft used in aquatic sports or related activities). Docking the device into the body of the craft serves to protect the device from impacts and mechanical stresses. The exemplary device comprises flat panel audio transducers, for example distributed mode loudspeakers and / or piezo transducers, or other flat panel audio transducer technologies, whether now known or in the future developed. The exemplary device is adapted for generating audio frequencies to produce high fidelity audio at sound pressure levels sufficient for the high noise environment that exists in aquatic sports. In the exemplary embodiment, the audio transducer(s) are acoustically coupled into the surface of the participant's aquatic sport craft and into the body of the craft. As a result of the acoustical coupling, the surface of the board, and the body of the board, act a distributed mode loudspeaker. In the exemplary embodiment, music playback is temporarily “paused” by two-way radio voice / data communication or by submersion of the device as detected by a submersion sensor. When incoming communication stops, or the device is no longer submerged, the music continues from the point it left off. This allows the participant to hear priority messages over the music program. It also allows the participant to resume music playback after surfacing. Further, the participant's ears are not obstructed so that verbal two-way voice / data communication with other participants nearby is no longer inhibited. The exemplary device has no visual display. Rather, the user interface is simplified, announcing verbal cues when switches are depressed. For example, when the participant depresses a volume key, the exemplary device announces “Volume Up.”

One embodiment of the invention is directed to a process for assembly of a covered housing comprising placing a first frame strip coupled with a fabric portion, under a shoulder on a first end of a housing, pulling the fabric portion toward a second end of a housing, placing a second frame strip coupled with the fabric portion, under a shoulder on the second end of the housing, placing a third frame strip coupled with the fabric portion, under a first main body shoulder of the housing, and placing a fourth frame strip coupled with the fabric portion, under a second main body shoulder of the housing.

A speaker set configured for a portable electronic device includes a hollow shell, a back cover, and a loudspeaker sandwiched between the shell of the back cover. The shell includes a first chamber, a second chamber, a third chamber and a fourth chamber. The second and third chambers are positioned at opposite sides of the first chamber, and communicate with a surrounding environment at opposite sides of the shell. The loudspeaker is accommodated in the first chamber, and divides the first chamber into a front sub-chamber and a rear sub-chamber. The front sub-chamber communicates with the second and the third chambers thereby forming a front resonance chamber. The rear sub-chamber communicates with the fourth chamber thereby forming a rear resonance chamber. Sound waves generated from the loudspeaker are transmitted to and resonate in the front and rear resonance chambers and then transmitted to the surrounding environment in opposite directions.