mhurhangee/patent-ind-claim-en huggingface dataset:
A discontinuous drive power tool assembly for generating rotational torque, the tool assembly comprising: a socket comprising a primary engaging surface spaced from an end of the socket ; a spindle having a first end portion configured to receive the socket , the first end portion having a primary engaging surface and a tapered surface spaced from a distal end of the spindle, the primary engaging surface of the spindle being configured to engage the primary engaging surface on the socket ; a pulse hammer engagable with a second end portion of the spindle that is opposite the first end portion ; and a motor including a motor shaft engagable with the pulse hammer , the motor being configured to rotate the pulse hammer , characterized in that the socket comprises a tapered surface extending from the end of the socket and being configured to engage the tapered surface of the spindle . a socket comprising a primary engaging surface spaced from an end of the socket ; a spindle having a first end portion configured to receive the socket , the first end portion having a primary engaging surface and a tapered surface spaced from a distal end of the spindle, the primary engaging surface of the spindle being configured to engage the primary engaging surface on the socket ; a pulse hammer engagable with a second end portion of the spindle that is opposite the first end portion ; and a motor including a motor shaft engagable with the pulse hammer , the motor being configured to rotate the pulse hammer , characterized in that the socket comprises a tapered surface extending from the end of the socket and being configured to engage the tapered surface of the spindle .
A Fe-based soft magnetic alloy represented by empirical formula Fe a B b C c Cu d : wherein a, b, c and d are atomic percent (at%) of the corresponding element, and wherein a is 82 to 86 at%, the sum of b and c is 13.5 to 17.5 at%, d is 0.5 to 1.5 at%, and the value according to the following Mathematical Formula 1 is 0.38 to 28.5; the values in the formula are %-values. b / c √ c
A method for parsing an incomplete response to a media file request, comprising: receiving an incomplete version of a media file in a response message including an indication that the response message includes the incomplete version of the media file and an indication of an access position for the incomplete version of the media file, wherein the access position identifies a byte at which to begin parsing the incomplete version of the media file to decode the incomplete version of the media file; determining whether the byte corresponding to the access position is received in the incomplete version of the media file; and parsing the incomplete version of the media file beginning at the byte corresponding to the access position in response to determining that the byte corresponding to the access position is received in the incomplete version of the media file. receiving an incomplete version of a media file in a response message including an indication that the response message includes the incomplete version of the media file and an indication of an access position for the incomplete version of the media file, wherein the access position identifies a byte at which to begin parsing the incomplete version of the media file to decode the incomplete version of the media file; determining whether the byte corresponding to the access position is received in the incomplete version of the media file; and parsing the incomplete version of the media file beginning at the byte corresponding to the access position in response to determining that the byte corresponding to the access position is received in the incomplete version of the media file.
A method for laterally confining neutral excitons in a semiconductor layer structure of a solid-state device , the semiconductor layer structure comprising at least one semiconductor layer and defining a device plane, the method comprising: creating an inhomogeneous electric field (F) in the semiconductor layer structure , the electric field (F) having an in-plane field component (F x ) whose magnitude varies along at least at least one confinement direction (x) in the device plane, the magnitude of the in-plane field component (F x ) having a maximum along said confinement direction (x), whereby the in-plane field component (F x ) causes a lateral confining potential (V(x)) for neutral excitons around the maximum; and irradiating the solid-state device with light to create neutral excitons in the semiconductor layer structure , the neutral excitons being laterally confined along the confinement direction (x) by the lateral confining potential (V(x)). creating an inhomogeneous electric field (F) in the semiconductor layer structure , the electric field (F) having an in-plane field component (F x ) whose magnitude varies along at least at least one confinement direction (x) in the device plane, the magnitude of the in-plane field component (F x ) having a maximum along said confinement direction (x), whereby the in-plane field component (F x ) causes a lateral confining potential (V(x)) for neutral excitons around the maximum; and irradiating the solid-state device with light to create neutral excitons in the semiconductor layer structure , the neutral excitons being laterally confined along the confinement direction (x) by the lateral confining potential (V(x)).
An apparatus , comprising: an adjustable tether having a pre-tied knot slideably displaceable in one direction from a first axial position to a second axial position; a first bolster device coupled to the adjustable tether via one or more tether apertures in the first bolster device , the first bolster device having a width and a length sized to accommodate passage of the first bolster device through a passageway in a first orientation of the first bolster device and sized to prevent passage through the passageway when the first bolster device is in a second orientation, wherein the pre-tied knot is configured to be tied prior to insertion of the first bolster device into the passageway; and a second bolster device coupled to the adjustable tether , the second bolster device positioned between the pre-tied knot and the first bolster device , the second bolster device having a channel that extends through at least a portion of the second bolster device and sized to receive placement of the pre-tied knot , wherein an axial distance between the pre-tied knot and the first bolster device is reduced by slideable displacement of the pre-tied knot from the first axial position to the second axial position; characterised in that : the apparatus comprises a lead suture ; and the first bolster device comprises one or more lead suture apertures and is coupled to the lead suture via the one or more lead suture apertures . an adjustable tether having a pre-tied knot slideably displaceable in one direction from a first axial position to a second axial position; a first bolster device coupled to the adjustable tether via one or more tether apertures in the first bolster device , the first bolster device having a width and a length sized to accommodate passage of the first bolster device through a passageway in a first orientation of the first bolster device and sized to prevent passage through the passageway when the first bolster device is in a second orientation, wherein the pre-tied knot is configured to be tied prior to insertion of the first bolster device into the passageway; and a second bolster device coupled to the adjustable tether , the second bolster device positioned between the pre-tied knot and the first bolster device , the second bolster device having a channel that extends through at least a portion of the second bolster device and sized to receive placement of the pre-tied knot , wherein an axial distance between the pre-tied knot and the first bolster device is reduced by slideable displacement of the pre-tied knot from the first axial position to the second axial position; characterised in that : the apparatus comprises a lead suture ; and the first bolster device comprises one or more lead suture apertures and is coupled to the lead suture via the one or more lead suture apertures . the apparatus comprises a lead suture ; and the first bolster device comprises one or more lead suture apertures and is coupled to the lead suture via the one or more lead suture apertures .
An insertion device insertable into a cavity in a body of an anchor , the insertion device comprising: a securing member movable between securing and non-securing positions, the securing member comprising two cooperating portions , each cooperating portion comprising a respective tip , the two cooperating portions being arranged opposite each other; wherein the tip can cooperate with the body of the anchor to urge the securing member towards the securing position when the insertion device is inserted into the cavity ; characterised in that each of the two cooperating portions comprises a respective first surface and a respective second surface , each of the first surfaces extending from the respective tip , and each of the second surfaces extending from the respective first surface ; further characterised in that the two second surfaces together form a single central surface. a securing member movable between securing and non-securing positions, the securing member comprising two cooperating portions , each cooperating portion comprising a respective tip , the two cooperating portions being arranged opposite each other; wherein the tip can cooperate with the body of the anchor to urge the securing member towards the securing position when the insertion device is inserted into the cavity ; characterised in that each of the two cooperating portions comprises a respective first surface and a respective second surface , each of the first surfaces extending from the respective tip , and each of the second surfaces extending from the respective first surface ; further characterised in that the two second surfaces together form a single central surface.
A method for encoding and compressing a digital n-bit gray scale image data stream , where 9 ≼ n ≼ 24, into a JPEG compressed data stream, comprising the steps of: - accessing each gray scale image data pixel of said n-bit data stream sequentially, - applying 3 mathematical transformations to each of n-bit luminance values retrieved from said gray scale image data pixels, - storing the results of said mathematical transformations into three 8-bit sub-pixel memory locations as an 8-bit RGB encoded image data pixel, - outputting said 8-bit RGB encoded image data pixels sequentially as an 8-bit RGB encoded image data stream, - compressing said 8-bit RGB encoded image data stream via the JPEG standard, characterized in that , said 3 mathematical transformations applied to each n-bit pixel data value are defined as: R = v 3 ∗ s G = v ∗ s R ∗ s B = v ∗ s 3 R ∗ G , wherein ν is the n-bit luminance value, where 9 ≼ n ≼ 24, stored in a data pixel of the original digital high quality gray scale image, s is a scaling factor depending on the bit range of the gray value, and R,G and B are respectively the 8-bit values of the three 8-bit pixel channels in an RGB-encoded image. - accessing each gray scale image data pixel of said n-bit data stream sequentially, - applying 3 mathematical transformations to each of n-bit luminance values retrieved from said gray scale image data pixels, - storing the results of said mathematical transformations into three 8-bit sub-pixel memory locations as an 8-bit RGB encoded image data pixel, - outputting said 8-bit RGB encoded image data pixels sequentially as an 8-bit RGB encoded image data stream, - compressing said 8-bit RGB encoded image data stream via the JPEG standard,
A process for making a three-dimensionally shaped glass article , comprising: placing a glass sheet in a forming tool, the forming tool comprising: a mold having a shaping surface with a desired surface profile for the shaped glass article including a flat area and a bend area ; a flat area plunger having a shaping surface corresponding to the flat area of the mold ; and a bend area plunger having a shaping surface corresponding to the bend area of the mold ; moving the flat area plunger toward the glass sheet to compress the glass sheet ; heating a portion of the glass sheet corresponding to an area above the bend area of the mold to a temperature above a forming temperature; and moving the bend area plunger toward the heated glass sheet to compress the heated glass sheet , thereby forming a shaped glass article having a flat area and a bend area , wherein a temperature of the portion of the glass sheet in the area above the bend area of the mold is higher than a temperature of a portion of the glass sheet in an area above the flat area of the mold when compressing the heated glass sheet with the bend area plunger , wherein the mold , the flat area plunger , and the bend area plunger are porous, and wherein a gas flows through the porous mold , flat area plunger , and bend area plunger to form a compressive gas layer above and below the glass sheet such that the glass sheet does not contact the mold flat area plunger and bent area plunger. placing a glass sheet in a forming tool, the forming tool comprising: a mold having a shaping surface with a desired surface profile for the shaped glass article including a flat area and a bend area ; a flat area plunger having a shaping surface corresponding to the flat area of the mold ; and a bend area plunger having a shaping surface corresponding to the bend area of the mold ; a mold having a shaping surface with a desired surface profile for the shaped glass article including a flat area and a bend area ; a flat area plunger having a shaping surface corresponding to the flat area of the mold ; and a bend area plunger having a shaping surface corresponding to the bend area of the mold ; moving the flat area plunger toward the glass sheet to compress the glass sheet ; heating a portion of the glass sheet corresponding to an area above the bend area of the mold to a temperature above a forming temperature; and moving the bend area plunger toward the heated glass sheet to compress the heated glass sheet , thereby forming a shaped glass article having a flat area and a bend area , wherein a temperature of the portion of the glass sheet in the area above the bend area of the mold is higher than a temperature of a portion of the glass sheet in an area above the flat area of the mold when compressing the heated glass sheet with the bend area plunger , wherein the mold , the flat area plunger , and the bend area plunger are porous, and
Method for determining an oncoming or outgoing direction of travel (E, R) of a vehicle relative to a Doppler radar , said radar being of a type using two transmission frequencies (f transmitted-ε , f transmitted+ε ), the method comprising the following steps /1/ to /5/, which are carried out for each of the two transmission frequencies (f transmitted-ε , f transmitted+ε ) according to time-division multiplexing: /1/ transmitting a wave at said transmission frequency towards the vehicle ; /2/ receiving a wave produced by reflection of the transmitted wave on the vehicle ; /3/ producing two mixtures of the received wave with the transmitted wave, said two mixtures (E 1 , E 2 ) being produced by applying, to the transmitted wave, prior to the mixing operations, two constant phase differences that differ by 90° and that are allocated one to one to said mixtures; /4/ filtering each mixture (E 1 , E 2 ) in order to obtain two filtered mixture signals (E 1 BF , E 2 BF ), each containing a component that varies at a frequency of a Doppler shift (±f d ) generated by the vehicle in motion; and /5/ subtracting the two filtered mixture signals (E 1 BF , E 2 BF ) from one another in order to obtain a difference signal (E 2 BF - E 1 BF | +ε , E 2 BF - E 1 BF | -ε ) having a component that varies at the frequency of the Doppler shift (±f d ) and that has an initial phase shift due to a propagation duration of the transmitted wave and of the received wave between the radar and the vehicle ; the method being characterised in that it further comprises a step /6/ wherein the oncoming or outgoing direction of travel (E, R) of the vehicle is deduced from a sign of an apparent phase difference (±Δφ received ) existing between the difference signals (E 2 BF - E 1 BF | +ε , E 2 BF - E 1 BF | -ε ) that were obtained in step /5/ respectively for the two transmission frequencies (f transmitted-ε , f transmitted+ε ), for the components of said difference signals at the frequency of the Doppler shift (±f d ). /1/ transmitting a wave at said transmission frequency towards the vehicle ; /2/ receiving a wave produced by reflection of the transmitted wave on the vehicle ; /3/ producing two mixtures of the received wave with the transmitted wave, said two mixtures (E 1 , E 2 ) being produced by applying, to the transmitted wave, prior to the mixing operations, two constant phase differences that differ by 90° and that are allocated one to one to said mixtures; /4/ filtering each mixture (E 1 , E 2 ) in order to obtain two filtered mixture signals (E 1 BF , E 2 BF ), each containing a component that varies at a frequency of a Doppler shift (±f d ) generated by the vehicle in motion; and /5/ subtracting the two filtered mixture signals (E 1 BF , E 2 BF ) from one another in order to obtain a difference signal (E 2 BF - E 1 BF | +ε , E 2 BF - E 1 BF | -ε ) having a component that varies at the frequency of the Doppler shift (±f d ) and that has an initial phase shift due to a propagation duration of the transmitted wave and of the received wave between the radar and the vehicle ;
A communication system which is adapted to use an Orthogonal Frequency Division Multiplexing, OFDM, method as a downlink access method, and also is adapted to use a Single Carrier Frequency Division Multiple Access, SC-FDMA, method as an uplink access method, and which is adapted to transmit broadcast type data for providing a Multimedia Broadcast Multicast Service, MBMS, which is a point-to-multipoint broadcast communication service to a mobile terminal and is also adapted to transmit point-to-point dedicated communication data to the mobile terminal , wherein the communication system has three types of cells including a unicast cell (102-1) to and from which a mobile terminal can transmit and receive the dedicated communication data, a MBMS dedicated cell (102-3) from which the mobile terminal can receive the broadcast type data, but to and from which the mobile terminal cannot transmit and receive the dedicated communication data, and a unicast/MBMS-mixed cell (102-2) which can provide both a service provided by the unicast cell (102-1) and a service provided by the MBMS dedicated cell (102-3), wherein, while receiving the broadcast type data transmitted from the MBMS dedicated cell (102-3), the mobile terminal is adapted to make a notification of an MBMS receiving state via the unicast cell (102-1) or the unicast/MBMS-mixed cell (102-2) and adapted to transmit information for identifying the MBMS dedicated cell (102-3) which is transmitting the broadcast type data that the mobile terminal is receiving, wherein the transmission of identifying information is performed during a discontinuous reception period during which transmission of MBMS data to the mobile terminal is discontinued, and the communication system is adapted to transmit a paging signal, from the MBMS dedicated cell (102-3), destined for the mobile terminal currently receiving the broadcast type data transmitted from the MBMS dedicated cell (102-3) on a basis of a tracking area (Tracking Area) in which the mobile terminal is tracked, the tracking area being determined on a basis of the information transmitted from the mobile terminal , the mobile terminal is adapted to carry out a measurement process including a measurement of an electric field intensity of the unicast cell (102-1) and/or an electric field intensity of the unicast/MBMS-mixed cell (102-2), and a cell selection.
A connector , comprising: a primary mold body formed by integrally molding a primary conductor to a primary molding resin ; and a secondary mold body formed by integrally molding a secondary conductor to a secondary molding resin ; the secondary conductor including a main circuit portion extending along the primary mold body and a branched circuit portion branched from the main circuit portion and laterally projecting; the primary molding resin including a supporting portion laterally projecting from a side surface of the secondary molding resin along the branched circuit portion ; and the supporting portion having a circuit contact surface disposed below a base end part of the branched circuit portion and to be brought into contact with a lower surface of the branched circuit portion , characterized by a pair of mold contact surfaces disposed on both left and right sides of the base end part of the branched circuit portion and disposed flush with an upper surface of the branched circuit portion . a primary mold body formed by integrally molding a primary conductor to a primary molding resin ; and a secondary mold body formed by integrally molding a secondary conductor to a secondary molding resin ; the secondary conductor including a main circuit portion extending along the primary mold body and a branched circuit portion branched from the main circuit portion and laterally projecting; the primary molding resin including a supporting portion laterally projecting from a side surface of the secondary molding resin along the branched circuit portion ; and the supporting portion having a circuit contact surface disposed below a base end part of the branched circuit portion and to be brought into contact with a lower surface of the branched circuit portion , characterized by a pair of mold contact surfaces disposed on both left and right sides of the base end part of the branched circuit portion and disposed flush with an upper surface of the branched circuit portion .