mhurhangee/ep-ind-claims huggingface dataset:
An axle assembly comprising: an axle housing having a center portion that defines a bowl opening and a differential carrier opening that receives a differential that has a ring gear; and a bowl cover that is mounted to the axle housing, the bowl cover includes: a perimeter surface that is radially disposed about a center axis and extends around the bowl cover; a flange that extends from the perimeter surface, wherein the flange facilitates mounting of the bowl cover to the axle housing; and a bowl that extends from the flange and covers the bowl opening, and characterized in that the bowl is a substantially spherical cap that is centered about the center axis, and in that the bowl cover has an outer surface that faces away from the axle housing and a suspension mount (132, 134) that is disposed on the outer surface and that extends away from the axle housing. an axle housing having a center portion that defines a bowl opening and a differential carrier opening that receives a differential that has a ring gear; and a bowl cover that is mounted to the axle housing, the bowl cover includes: a perimeter surface that is radially disposed about a center axis and extends around the bowl cover; a flange that extends from the perimeter surface, wherein the flange facilitates mounting of the bowl cover to the axle housing; and a bowl that extends from the flange and covers the bowl opening, and characterized in that the bowl is a substantially spherical cap that is centered about the center axis, and in that the bowl cover has an outer surface that faces away from the axle housing and a suspension mount (132, 134) that is disposed on the outer surface and that extends away from the axle housing. a perimeter surface that is radially disposed about a center axis and extends around the bowl cover; a flange that extends from the perimeter surface, wherein the flange facilitates mounting of the bowl cover to the axle housing; and a bowl that extends from the flange and covers the bowl opening, and characterized in that the bowl is a substantially spherical cap that is centered about the center axis, and in that the bowl cover has an outer surface that faces away from the axle housing and a suspension mount (132, 134) that is disposed on the outer surface and that extends away from the axle housing.
A vibration device (3, 31, 41, 51, 61, 71) comprising: a dome-shaped cover arranged so as to include a detection region of an optical detection element; a tubular support body having an interior space for arranging the optical detection element and being connected to the cover; a vibrating body coupled to the support body and vibrating the cover with the support body interposed between the vibrating body and the cover; and a drive circuit, in a case where the cover and the support body are vibrated at substantially the same resonant frequency, in a connection portion (12a-12b) where the cover and the support body are connected, driving the vibrating body at substantially the same frequency as the resonant frequency so as to vibrate the cover and the support body in a vibration mode in which displacement of a portion on a connection portion side of the cover and displacement of a portion on a connection portion side of the support body are in opposite directions. a dome-shaped cover arranged so as to include a detection region of an optical detection element; a tubular support body having an interior space for arranging the optical detection element and being connected to the cover; a vibrating body coupled to the support body and vibrating the cover with the support body interposed between the vibrating body and the cover; and a drive circuit, in a case where the cover and the support body are vibrated at substantially the same resonant frequency, in a connection portion (12a-12b) where the cover and the support body are connected, driving the vibrating body at substantially the same frequency as the resonant frequency so as to vibrate the cover and the support body in a vibration mode in which displacement of a portion on a connection portion side of the cover and displacement of a portion on a connection portion side of the support body are in opposite directions.
A computer-implemented method comprising: detecting a current context associated with a mobile computing device, the context being external to the mobile computing device and indicating a type of dock to which the mobile computing device is docked; determining, based on the current context associated with the mobile computing device, whether to switch the mobile computing device from a first mode of operation in which audio data is not monitored for voice input that indicates a request from a user for the mobile computing device to perform an operation, to a second mode of operation in which audio data is monitored for voice inputs; in response to determining to switch the mobile computing device to the second mode of operation, activating one or more microphones to receive ambient audio signals and provide electronic audio data to the mobile computing device, and activating a speech analysis subsystem associated with the mobile computing device to detect voice inputs from other ambient noises in the audio data and to identify whether one or more keywords from a predetermined group of keywords is present in the voice inputs to determine if any of the voice inputs is a request from the user for the mobile computing device to perform the operation; providing output on the mobile computing device that is responsive to a voice input identified as the request from the user for the mobile computing device to perform the operation. detecting a current context associated with a mobile computing device, the context being external to the mobile computing device and indicating a type of dock to which the mobile computing device is docked; determining, based on the current context associated with the mobile computing device, whether to switch the mobile computing device from a first mode of operation in which audio data is not monitored for voice input that indicates a request from a user for the mobile computing device to perform an operation, to a second mode of operation in which audio data is monitored for voice inputs; in response to determining to switch the mobile computing device to the second mode of operation, activating one or more microphones to receive ambient audio signals and provide electronic audio data to the mobile computing device, and activating a speech analysis subsystem associated with the mobile computing device to detect voice inputs from other ambient noises in the audio data and to identify whether one or more keywords from a predetermined group of keywords is present in the voice inputs to determine if any of the voice inputs is a request from the user for the mobile computing device to perform the operation; providing output on the mobile computing device that is responsive to a voice input identified as the request from the user for the mobile computing device to perform the operation.
A process for the purification of biological feed material comprising tall oil materials, comprising the steps of: - subjecting the biological feed material to treatment in a heater to produce a first fraction comprising water and light components having a boiling point of 150 - 210 °C at normal pressure and second fraction comprising heavier components and residues, - evaporating said second fraction in a first evaporator to produce a third fraction comprising water and low boiling light hydrocarbons components, said fraction having a boiling point of 100 - 210 °C at normal pressure and a fourth fraction comprising heavier components and residues, - evaporating said fourth fraction in a second evaporator to produce a fifth fraction comprising mainly fatty acids and a sixth fraction comprising heavier components and residues, - evaporating said sixth fraction in a third evaporator to produce a seventh fraction comprising mainly fatty acids and an eighth fraction comprising heavy residues, and - recovering the fifth and seventh fractions. - subjecting the biological feed material to treatment in a heater to produce a first fraction comprising water and light components having a boiling point of 150 - 210 °C at normal pressure and second fraction comprising heavier components and residues, - evaporating said second fraction in a first evaporator to produce a third fraction comprising water and low boiling light hydrocarbons components, said fraction having a boiling point of 100 - 210 °C at normal pressure and a fourth fraction comprising heavier components and residues, - evaporating said fourth fraction in a second evaporator to produce a fifth fraction comprising mainly fatty acids and a sixth fraction comprising heavier components and residues, - evaporating said sixth fraction in a third evaporator to produce a seventh fraction comprising mainly fatty acids and an eighth fraction comprising heavy residues, and - recovering the fifth and seventh fractions.
A device for receiving acoustic waves comprising: - an acoustic antenna able to have an electrostatic microphone function distributed along a line of the acoustic antenna comprising a conductor and a dielectric material, the line being a transmission line or being configured to have a transmission line function when the dielectric material is in direct physical contact with another conductor, - an exciter configured to apply, during a reception step, an input signal at a first longitudinal end of the line so as to generate an input electromagnetic wave moving towards a second longitudinal end of the line and so as to generate an output electromagnetic wave moving in the opposite direction to the input electromagnetic wave, said device being characterised in that: - said input signal is an input voltage; - the input voltage simultaneously comprises a set of sinusoidal voltages comprising a fundamental sinusoidal voltage and a set of harmonics of the fundamental sinusoidal voltage, with the frequency of the fundamental sinusoidal voltage being defined such that standing waves are established in the line such that the output electromagnetic wave comprises directional paths of the acoustic antenna. - an acoustic antenna able to have an electrostatic microphone function distributed along a line of the acoustic antenna comprising a conductor and a dielectric material, the line being a transmission line or being configured to have a transmission line function when the dielectric material is in direct physical contact with another conductor, - an exciter configured to apply, during a reception step, an input signal at a first longitudinal end of the line so as to generate an input electromagnetic wave moving towards a second longitudinal end of the line and so as to generate an output electromagnetic wave moving in the opposite direction to the input electromagnetic wave, - said input signal is an input voltage; - the input voltage simultaneously comprises a set of sinusoidal voltages comprising a fundamental sinusoidal voltage and a set of harmonics of the fundamental sinusoidal voltage, with the frequency of the fundamental sinusoidal voltage being defined such that standing waves are established in the line such that the output electromagnetic wave comprises directional paths of the acoustic antenna.
A driving force transmission device (3, 5) comprising: an engaging/disengaging unit (31, 51) capable of changing transmission of torque by operating along an rotation axis center thereof; a first spiral bevel gear (36, 56) attached to the engaging/disengaging unit (31, 51) so as to rotate together with the engaging/disengaging unit (31, 51); and a second spiral bevel gear (37, 57) constituting, with the first spiral bevel gear (36, 56), a paired spiral bevel gear (32, 52) that are hypoid gears by engaging with each other, the driving force transmission device (3, 5) being characterized in that: the first spiral bevel gear (36, 56) is moved along a rotation axis center thereof according to engaging tooth faces at a time when power is transmitted between the first spiral bevel gear (36, 56) and the second spiral bevel gear (37, 57), and accordingly, the engaging/disengaging unit (31, 51) operates along the rotation axis center thereof. an engaging/disengaging unit (31, 51) capable of changing transmission of torque by operating along an rotation axis center thereof; a first spiral bevel gear (36, 56) attached to the engaging/disengaging unit (31, 51) so as to rotate together with the engaging/disengaging unit (31, 51); and a second spiral bevel gear (37, 57) constituting, with the first spiral bevel gear (36, 56), a paired spiral bevel gear (32, 52) that are hypoid gears by engaging with each other, the driving force transmission device (3, 5) being characterized in that: the first spiral bevel gear (36, 56) is moved along a rotation axis center thereof according to engaging tooth faces at a time when power is transmitted between the first spiral bevel gear (36, 56) and the second spiral bevel gear (37, 57), and accordingly, the engaging/disengaging unit (31, 51) operates along the rotation axis center thereof. the first spiral bevel gear (36, 56) is moved along a rotation axis center thereof according to engaging tooth faces at a time when power is transmitted between the first spiral bevel gear (36, 56) and the second spiral bevel gear (37, 57), and accordingly, the engaging/disengaging unit (31, 51) operates along the rotation axis center thereof.
A direct heating type card lamination apparatus, comprising: a card transferring unit for transferring a card; a patch supplying unit for supplying a lamination patch to be coated on a surface of the card; a lamination head disposed on a transfer route of a card to be momentarily heated by an applied power; and a head elevating unit for performing pressurization to coat a lamination patch (b) on the card by descending the lamination head, and when completely coated, by ascending the lamination head to an original position; wherein the lamination head comprises a head case, a planar heating element installed inside a lower portion of the head case to be momentarily heated by an applied power, a heat emitting member installed in a lower portion thereof to emit heat generated and applied from the planar heating element to the lamination patch (b), and a temperature sensing unit installed in the head case to sense a heating temperature of the planar heating element; wherein the head elevating unit comprises a head fixing member installed inside a frame to mount the lamination head, a head ascending member movably installed in the head fixing member to move the lamination head connected to an end thereof by an applied external force, a head pressurizing member for applying a driving force to the head ascending member such that the lamination head moves toward the card to perform lamination, and a head returning member for applying a return force to the head ascending member to return the lamination head to an original position after performing lamination; wherein the head fixing member comprises a fixer installed on the frame and a supporter having a pair of longitudinal members that stand upright for guiding and supporting elevation movement of the head ascending member; and wherein the head ascending member comprises a transverse member installed between the pair of longitudinal members of the head fixing member to be capable of elevating in a transverse direction, and a connecting rod connected to a lower portion of the transverse member to contact with the lamination head at a lower end. a card transferring unit for transferring a card; a patch supplying unit for supplying a lamination patch to be coated on a surface of the card; a lamination head disposed on a transfer route of a card to be momentarily heated by an applied power; and a head elevating unit for performing pressurization to coat a lamination patch (b) on the card by descending the lamination head, and when completely coated, by ascending the lamination head to an original position;
A radio transmitting apparatus comprising: spreading section (7A,..., 7D) for spreading transmission data to be sent to one counterpart station; and transmitting section for transmitting a spread signal, wherein said spreading section (7A,..., 7D) is adapted to spread, at a transmission time, said transmission data, divided into a plurality of sequences, each sequence using its own unique spread code, said spread codes having orthogonality therebetween, and is adapted to spread said transmission data, divided into said plurality of sequences, using the same spread codes, but changing a spread code used for each sequence from a spread code used for the same sequence at the transmission time when said transmission data is retransmitted. spreading section (7A,..., 7D) for spreading transmission data to be sent to one counterpart station; and transmitting section for transmitting a spread signal, wherein said spreading section (7A,..., 7D) is adapted to spread, at a transmission time, said transmission data, divided into a plurality of sequences, each sequence using its own unique spread code, said spread codes having orthogonality therebetween, and is adapted to spread said transmission data, divided into said plurality of sequences, using the same spread codes, but changing a spread code used for each sequence from a spread code used for the same sequence at the transmission time when said transmission data is retransmitted.
A method of rendering an audio signal, the method comprising: receiving a plurality of input channel signals to be converted into a plurality of output channel signals; obtaining filter coefficients for a height input channel signal among the plurality of input channel signals, based on a Head-Related Transfer Function; characterized by obtaining panning gains for the height input channel signal, wherein the panning gains are obtained based on a frequency range and a position of the height input channel signal; and performing elevation rendering on the plurality of input channel signals, based on the filter coefficients and the panning gains, to provide elevated sound images by the plurality of output channel signals. receiving a plurality of input channel signals to be converted into a plurality of output channel signals; obtaining filter coefficients for a height input channel signal among the plurality of input channel signals, based on a Head-Related Transfer Function; characterized by obtaining panning gains for the height input channel signal, wherein the panning gains are obtained based on a frequency range and a position of the height input channel signal; and performing elevation rendering on the plurality of input channel signals, based on the filter coefficients and the panning gains, to provide elevated sound images by the plurality of output channel signals.
Reinforcing element for reinforcing structural elements (12, 14) in vehicles, said reinforcing element comprising: a support having at least one reservoir, wherein the reservoir has at least one outlet opening; an adhesive, which is arranged in the reservoir; and at least one dispensing element having a separating element and a propulsion element, wherein the separating element is arranged in the reservoir and separates the adhesive from the propulsion element, and wherein the separating element is arranged substantially opposite the outlet opening; wherein, when the propulsion element is actuated, the separating element is moved through the reservoir, with the result that the adhesive is dispensed from the reservoir through the outlet opening. a support having at least one reservoir, wherein the reservoir has at least one outlet opening; an adhesive, which is arranged in the reservoir; and at least one dispensing element having a separating element and a propulsion element, wherein the separating element is arranged in the reservoir and separates the adhesive from the propulsion element, and wherein the separating element is arranged substantially opposite the outlet opening; wherein, when the propulsion element is actuated, the separating element is moved through the reservoir, with the result that the adhesive is dispensed from the reservoir through the outlet opening.
A computer-implemented method for rapidly launching a virtual software application at a client computer system using on demand file staging, in a computer networking environment including a plurality of computer systems, the client computer system including at least one processor and a memory, the method comprising: an act of creating, on the client computer system a file listing that includes a list of specified high-level data files and directories that are part of a virtual software application, the high-level data files including a listing of files that are part of the application's initialization process, wherein sparse data files are dynamically created for those files that are included in the listing of files that are part of the application's initialization process; an act of receiving an indication from an application user that the virtual software application is to be accessed; an act of dynamically creating, by a sparse file creating module of the client computer system, sparse data files for those data files that are to be accessed based on the received indication, the sparse files including file names and file sizes for those data files that are to be accessed, those data files being stored in a remote data store; and upon determining that the virtual application is attempting to access one or more of the sparse data files, an act of dynamically streaming the data files corresponding to the sparse data files on demand from the remote data store. an act of creating, on the client computer system a file listing that includes a list of specified high-level data files and directories that are part of a virtual software application, the high-level data files including a listing of files that are part of the application's initialization process, wherein sparse data files are dynamically created for those files that are included in the listing of files that are part of the application's initialization process; an act of receiving an indication from an application user that the virtual software application is to be accessed; an act of dynamically creating, by a sparse file creating module of the client computer system, sparse data files for those data files that are to be accessed based on the received indication, the sparse files including file names and file sizes for those data files that are to be accessed, those data files being stored in a remote data store; and upon determining that the virtual application is attempting to access one or more of the sparse data files, an act of dynamically streaming the data files corresponding to the sparse data files on demand from the remote data store.