mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for determining speech data from text, the method comprising: receiving (S101) text; encoding (S103), by way of an encoder module , the received text; determining (S105), by way of an attention module comprising an attention vector, a context vector from the encoding of the received text, wherein determining the context vector comprises at least one of (S107): applying a threshold function to the attention vector and accumulating the thresholded attention vector, or applying an activation function to the attention vector and accumulating the activated attention vector; and, determining (S109) speech data from the context vector by decoding, by way of a decoder module , the context vector, wherein the speech data comprises an audio signal comprising speech or data from which an audio waveform may be derived. receiving (S101) text; encoding (S103), by way of an encoder module , the received text; determining (S105), by way of an attention module comprising an attention vector, a context vector from the encoding of the received text, wherein determining the context vector comprises at least one of (S107): applying a threshold function to the attention vector and accumulating the thresholded attention vector, or applying an activation function to the attention vector and accumulating the activated attention vector; and, determining (S109) speech data from the context vector by decoding, by way of a decoder module , the context vector, wherein the speech data comprises an audio signal comprising speech or data from which an audio waveform may be derived. applying a threshold function to the attention vector and accumulating the thresholded attention vector, or applying an activation function to the attention vector and accumulating the activated attention vector; and, determining (S109) speech data from the context vector by decoding, by way of a decoder module , the context vector, wherein the speech data comprises an audio signal comprising speech or data from which an audio waveform may be derived.
A method for detecting endogenous IgG cleavage in a patient, the method comprising: a. providing a blood sample comprising IgG which has been obtained from the patient: b. subjecting the sample to a mass spectrometry technique to obtain a mass spectrum of the sample; and c. identifying the presence of a plasmin generated endogenous IgG cleavage fragment in the sample; wherein the IgG cleavage fragment comprises the N-terminal amino acid sequence THTCPPCPAPEL (SEQ ID NO:2). a. providing a blood sample comprising IgG which has been obtained from the patient: b. subjecting the sample to a mass spectrometry technique to obtain a mass spectrum of the sample; and c. identifying the presence of a plasmin generated endogenous IgG cleavage fragment in the sample;
A method of communications for a device , comprising: determining a type of an identity module based on one or more internal parameters of the identity module ; obtaining one or more credentials based at least in part on the determined type of the identity module ; and generating a virtual identification module based on the one or more internal parameters of the identity module and the obtained one or more credentials, wherein the identity module comprises a mobile country code, MCC, and a mobile network code, MNC, and wherein the obtaining further comprises using the MCC and MNC to determine the one or more credentials. determining a type of an identity module based on one or more internal parameters of the identity module ; obtaining one or more credentials based at least in part on the determined type of the identity module ; and generating a virtual identification module based on the one or more internal parameters of the identity module and the obtained one or more credentials, wherein the identity module comprises a mobile country code, MCC, and a mobile network code, MNC, and wherein the obtaining further comprises using the MCC and MNC to determine the one or more credentials.
Method for determining wind speed components by way of a lidar sensor , said lidar sensor being oriented substantially vertically in order to carry out the measurements in at least one substantially horizontal measurement plane (PM), each measurement plane (PM) comprising at least two measurement points (b1, b2, b3, b4), characterized in that the following steps are implemented: a) acquiring (ACQ) measurement signals from said lidar sensor for each measurement point (b1, b2, b3, b4) of said at least one measurement plane (PM); b) determining the mean wind direction (Dir) and the mean wind speed ( v ) in said at least one measurement plane (PM) by way of a reconstruction of the wind based on said measurement signals; c) constructing a projection line perpendicular to said determined wind direction (Dir) in said at least one measurement plane; d) determining a time offset (δt) between each measurement point (b1, b2, b3, b4) of said at least one measurement plane (PM) and said constructed projection line, by way of said determined mean wind speed ( v ); e) for each measurement point (b1, b2, b3, b4) of said at least one measurement plane (PM), determining a corrected measurement signal, said corrected measurement signal corresponding to the measurement signal at a time preceding the time under consideration minus a duration corresponding to said time offset (δt); and f) determining said wind speed components in said at least one measurement plane (PM) by way of said corrected measurement signals. a) acquiring (ACQ) measurement signals from said lidar sensor for each measurement point (b1, b2, b3, b4) of said at least one measurement plane (PM); b) determining the mean wind direction (Dir) and the mean wind speed ( v ) in said at least one measurement plane (PM) by way of a reconstruction of the wind based on said measurement signals; c) constructing a projection line perpendicular to said determined wind direction (Dir) in said at least one measurement plane; d) determining a time offset (δt) between each measurement point (b1, b2, b3, b4) of said at least one measurement plane (PM) and said constructed projection line, by way of said determined mean wind speed ( v ); e) for each measurement point (b1, b2, b3, b4) of said at least one measurement plane (PM), determining a corrected measurement signal, said corrected measurement signal corresponding to the measurement signal at a time preceding the time under consideration minus a duration corresponding to said time offset (δt); and f) determining said wind speed components in said at least one measurement plane (PM) by way of said corrected measurement signals.
A laptop computer comprising: a main body part comprising a mainboard (M) and a pair of coaxial cables , one end of each being connected to the mainboard (M); and a display part hinge-coupled with the main body part and comprising a pair of flexible printed circuit boards which are installed on the back of the display part and have each one end coupled with the other end of one of the coaxial cables , wherein the display part further comprises a display and an upper bezel , wherein the upper bezel is disposed above the display , and, in this upper bezel , antennas extend from or are connected to the other ends of the flexible printed circuit boards , wherein the antennas comprise a pair of first antennas and a pair of second antennas , wherein the pair of first antennas are installed on both ends of the upper bezel , respectively, and the pair of second antennas are spaced at a predetermined distance from each other and are installed between the pair of first antennas , and wherein a first one of the pair of first antennas and a first one of the pair of second antennas extend from or are connected to an end of a first one of the pair of flexible printed circuit boards in left and right directions, and a second one of the pair of first antennas and a second one of the pair of second antennas extend from or are connected to an end of a second one of the pair of flexible printed circuit boards in left and right directions. a main body part comprising a mainboard (M) and a pair of coaxial cables , one end of each being connected to the mainboard (M); and a display part hinge-coupled with the main body part and comprising a pair of flexible printed circuit boards which are installed on the back of the display part and have each one end coupled with the other end of one of the coaxial cables , wherein the display part further comprises a display and an upper bezel , wherein the upper bezel is disposed above the display , and, in this upper bezel , antennas extend from or are connected to the other ends of the flexible printed circuit boards , wherein the antennas comprise a pair of first antennas and a pair of second antennas , wherein the pair of first antennas are installed on both ends of the upper bezel , respectively, and the pair of second antennas are spaced at a predetermined distance from each other and are installed between the pair of first antennas , and wherein a first one of the pair of first antennas and a first one of the pair of second antennas extend from or are connected to an end of a first one of the pair of flexible printed circuit boards in left and right directions, and a second one of the pair of first antennas and a second one of the pair of second antennas extend from or are connected to an end of a second one of the pair of flexible printed circuit boards in left and right directions.
A method of controlling a display of a plurality of objects according to motion of a mobile terminal, the method comprising: displaying a layout including a plurality of non-overlapping areas in which a plurality of objects are respectively displayed; receiving a reciprocating motion of the mobile terminal; detecting a direction of the received reciprocating motion; determining whether one of the plurality of areas is touched; determining whether the reciprocating motion of the mobile terminal is received while the touch is maintained; and in response to receiving the reciprocating motion of the mobile terminal while the touch is maintained: rearranging the remaining areas except for the touched area by changing locations of two or more areas, of the remaining areas, aligned in the direction of the reciprocating motion; and displaying a changed layout including the changed locations of the two or more areas, wherein the changed layout is free of overlapping areas. displaying a layout including a plurality of non-overlapping areas in which a plurality of objects are respectively displayed; receiving a reciprocating motion of the mobile terminal; detecting a direction of the received reciprocating motion; determining whether one of the plurality of areas is touched; determining whether the reciprocating motion of the mobile terminal is received while the touch is maintained; and in response to receiving the reciprocating motion of the mobile terminal while the touch is maintained: rearranging the remaining areas except for the touched area by changing locations of two or more areas, of the remaining areas, aligned in the direction of the reciprocating motion; and displaying a changed layout including the changed locations of the two or more areas, rearranging the remaining areas except for the touched area by changing locations of two or more areas, of the remaining areas, aligned in the direction of the reciprocating motion; and displaying a changed layout including the changed locations of the two or more areas, wherein the changed layout is free of overlapping areas.
A photosensitive resin composition comprising (A) a silphenylene and polyether structure-containing polymer comprising repeating units having the following formulae to , and (B) a photoacid generator, wherein X 1 is a divalent group having the following formula (X1), X 2 is a divalent group having the following formula (X2), X 3 is a divalent group having the following formula (X3), X 4 is a divalent group having the following formula (X4), and p, q, r and s are numbers in the range: 0 < p < 1, 0 ≤ q < 1, 0 ≤ r < 1, 0 ≤ s < 1, 0 < q+r+s < 1, and p+q+r+s = 1, wherein R 1 and R 2 are each independently hydrogen or a C 1 -C 8 monovalent hydrocarbon group, R 3 and R 4 are each independently hydrogen or methyl, a 1 and a 2 are each independently an integer of 1 to 6, and n is an integer of 0 to 100, wherein Y 1 is a single bond, methylene, propane-2,2-diyl, 1,1,1,3,3,3-hexafluoropropane-2,2-diyl or fluorene-9,9-diyl, R 11 and R 12 are each independently hydrogen or methyl, R 13 and R 14 are each independently a C 1 -C 4 alkyl or alkoxy group, b 1 and b 2 are each independently an integer of 0 to 7, and c 1 and c 2 are each independently an integer of 0 to 2, wherein Y 2 is a single bond, methylene, propane-2,2-diyl, 1,1,1,3,3,3-hexafluoropropane-2,2-diyl or fluorene-9,9-diyl, R 21 and R 22 are each independently hydrogen or methyl, R 23 and R 24 are each independently a C 1 -C 4 alkyl or alkoxy group, d 1 and d 2 are each independently an integer of 0 to 7, and e 1 and e 2 are each independently an integer of 0 to 2, wherein R 31 and R 32 are each independently hydrogen or methyl, and f 1 and f 2 are each independently an integer of 0 to 7.
A negative electrode active material which is a negative electrode active material containing particles of a negative electrode active material, wherein the particles of the negative electrode active material contain particles of a silicon compound which contain a silicon compound SiO x 0.5≤x≤1.6, the particles of the negative electrode active material contain lithium, and the particles of the negative electrode active material include lithium carbonate and have a peak deriving from a face of Zabuyelite which is a crystal phase of the lithium carbonate in the range of 2θ=31.8±0.5° obtained by X-ray diffraction spectrum using Kα line of Cu.
A method for updating a remote geographic database at specified times, the method comprising: receiving sensor data indicative of a road feature (137-139) from a sensor of a mobile device ; receiving a geographic position associated with the road feature (137-139) from a position detector of the mobile device ; characterized in that the method further comprises the steps of: delaying (S103), based on a comparison of a current time to a predetermined time, where the predetermined time is based on an update schedule between the remote database and a local database of the mobile device , the performing (S105) of a comparison of the geographic position and the sensor data indicative of the road feature (137-139) to the local database ; and generating an update message (S108) for sending to the remote geographic database when there is no match (S107) with the local database . receiving sensor data indicative of a road feature (137-139) from a sensor of a mobile device ; receiving a geographic position associated with the road feature (137-139) from a position detector of the mobile device ; characterized in that the method further comprises the steps of: delaying (S103), based on a comparison of a current time to a predetermined time, where the predetermined time is based on an update schedule between the remote database and a local database of the mobile device , the performing (S105) of a comparison of the geographic position and the sensor data indicative of the road feature (137-139) to the local database ; and generating an update message (S108) for sending to the remote geographic database when there is no match (S107) with the local database . delaying (S103), based on a comparison of a current time to a predetermined time, where the predetermined time is based on an update schedule between the remote database and a local database of the mobile device , the performing (S105) of a comparison of the geographic position and the sensor data indicative of the road feature (137-139) to the local database ; and generating an update message (S108) for sending to the remote geographic database when there is no match (S107) with the local database .
At a computer system including at least one processor and a memory, in a computer networking environment including a plurality of computing systems, a computer-implemented method for dynamically adapting metadata for use with a native data encoding, the method comprising: an act of instantiating a metadata reader over an object model description to access metadata in the object model description, the metadata reader being configured to read native metadata, the native metadata comprising metadata represented in an encoding that is expected by the metadata reader; an act of the metadata reader determining that the accessed metadata is encoded in a non-native encoding; an act of the metadata reader determining which metadata modifications are to be performed to transform the non-native encoding into the native encoding, wherein the metadata modifications include modifying types used by the non-native encoding to be types used by the native encoding, wherein the types used by the object model description are encoded using a type reference, and wherein modifying types used by the non-native encoding comprises translating a target of a respective type reference in place while leaving other uses of said respective type reference unmodified; an act of dynamically adapting the metadata of the object model description from the non-native encoding to the native encoding according to the determined modifications, such that the object model description is readable by a native runtime. an act of instantiating a metadata reader over an object model description to access metadata in the object model description, the metadata reader being configured to read native metadata, the native metadata comprising metadata represented in an encoding that is expected by the metadata reader; an act of the metadata reader determining that the accessed metadata is encoded in a non-native encoding; an act of the metadata reader determining which metadata modifications are to be performed to transform the non-native encoding into the native encoding, wherein the metadata modifications include modifying types used by the non-native encoding to be types used by the native encoding, wherein the types used by the object model description are encoded using a type reference, and wherein modifying types used by the non-native encoding comprises translating a target of a respective type reference in place while leaving other uses of said respective type reference unmodified; an act of dynamically adapting the metadata of the object model description from the non-native encoding to the native encoding according to the determined modifications, such that the object model description is readable by a native runtime.
A method comprising: dispersing carbon nanostructures in a liquid medium to form a dispersion; blending the dispersion with a particulate solid to form a blend; and drying said blend to form a preblend; wherein the preblend comprises a core-shell material comprising a core of particles of said particulate solid coated with a shell of said carbon nanostructures; and wherein the core particles comprise particles selected from the group consisting of carbon black, graphitic carbon and glassy carbon. dispersing carbon nanostructures in a liquid medium to form a dispersion; blending the dispersion with a particulate solid to form a blend; and drying said blend to form a preblend; wherein the preblend comprises a core-shell material comprising a core of particles of said particulate solid coated with a shell of said carbon nanostructures; and wherein the core particles comprise particles selected from the group consisting of carbon black, graphitic carbon and glassy carbon.
An interface display method, performed by a terminal, characterized by comprising: receiving a first input for triggering display of a target page, wherein the target page comprises at least two functional cards, and each functional card displays a notification message or quick function entry corresponding to an application program; and displaying , in response to the first input, functional cards in the target page according to a display mode corresponding to an operating parameter of the first input, wherein the operating parameter of the first input is related to an operating type of the first input, different operating parameters correspond to different display modes, and the display mode comprises at least one of: displaying at least one functional card in the target page: unfoldably displaying the at least one functional card in the target page, so that content of the at least one functional card can be directly viewed without an unfolding operation; foldably displaying the at least one functional card in the target page, so as not to display content of the at least one functional card. receiving a first input for triggering display of a target page, wherein the target page comprises at least two functional cards, and each functional card displays a notification message or quick function entry corresponding to an application program; and displaying , in response to the first input, functional cards in the target page according to a display mode corresponding to an operating parameter of the first input, wherein the operating parameter of the first input is related to an operating type of the first input, different operating parameters correspond to different display modes, and the display mode comprises at least one of: displaying at least one functional card in the target page: unfoldably displaying the at least one functional card in the target page, so that content of the at least one functional card can be directly viewed without an unfolding operation; foldably displaying the at least one functional card in the target page, so as not to display content of the at least one functional card. displaying at least one functional card in the target page: unfoldably displaying the at least one functional card in the target page, so that content of the at least one functional card can be directly viewed without an unfolding operation; foldably displaying the at least one functional card in the target page, so as not to display content of the at least one functional card.
A method for processing flexographic plates, comprising the steps of - providing a flexographic plate including a relief layer composed of a top part , a middle part and a bottom part forming subsequent layers in the plate , the relief layer containing a photosensitive material, the plate further including, on the relief layer , a carbon layer that is impenetrable for UV light, - locally ablating the carbon layer by exposure to radiation for forming a pattern in the carbon layer that is penetrable for UV light, and - polymerizing at least the top part of the relief layer under the carbon pattern layer by exposure to radiation, wherein a radiation source is used for generating a radiation beam forming a spot on the carbon layer both locally ablating the carbon layer and exposing at least the top part of the relief layer directly below said removed carbon to said radiation beam spot for polymerizing said top part layer , - backwardly exposing the relief layer to radiation for forming the bottom part of the relief layer as a floor layer. - providing a flexographic plate including a relief layer composed of a top part , a middle part and a bottom part forming subsequent layers in the plate , the relief layer containing a photosensitive material, the plate further including, on the relief layer , a carbon layer that is impenetrable for UV light, - locally ablating the carbon layer by exposure to radiation for forming a pattern in the carbon layer that is penetrable for UV light, and - polymerizing at least the top part of the relief layer under the carbon pattern layer by exposure to radiation, wherein a radiation source is used for generating a radiation beam forming a spot on the carbon layer both locally ablating the carbon layer and exposing at least the top part of the relief layer directly below said removed carbon to said radiation beam spot for polymerizing said top part layer , - backwardly exposing the relief layer to radiation for forming the bottom part of the relief layer as a floor layer.