mhurhangee/patent-ind-claim-en huggingface dataset:
A method for vector quantizing speech and audio coding parameters performed by an apparatus, said method comprising: - determining, for each set of basis code vectors of a plurality of sets of basis code vectors, a potential basis code vector for encoding an input vector, wherein each set of basis code vectors is associated with at least two scale representatives of a plurality of scale representatives, wherein said sets of basis code vectors are leader classes, and wherein each leader class comprises a different leader vector and permutations of said leader vector; - selecting each of the at least two scale representatives in turn, wherein for each turn a respective scale representative of the at least two scale representatives is processed by selecting, for each set of basis code vectors associated with the respective scale representative, a respective potential basis code vector, and determining, for each set of basis code vectors associated with the respective scale representative, a distortion metric based on the selected respective potential basis code vector scaled by the associated respective scale representative and the input vector; and determining a code vector for encoding the input vector based on the distortion metric. - determining, for each set of basis code vectors of a plurality of sets of basis code vectors, a potential basis code vector for encoding an input vector, wherein each set of basis code vectors is associated with at least two scale representatives of a plurality of scale representatives, wherein said sets of basis code vectors are leader classes, and wherein each leader class comprises a different leader vector and permutations of said leader vector; - selecting each of the at least two scale representatives in turn, wherein for each turn a respective scale representative of the at least two scale representatives is processed by selecting, for each set of basis code vectors associated with the respective scale representative, a respective potential basis code vector, and
Method for producing a component by hot forming a precursor made of a steel having a TRIP and/or TRIP/TWIP effect, comprising a manganese content of over 12 wt.%, advantageously comprising up to 20 wt.% and an austenite content of at least 25 to 90 vol.%, advantageously at least 35 vol.%, the remainder being ferrite or bainite, martensite, tempered martensite or perlite, characterised in that the precursor is formed at a hot forming temperature above 60°C and below the Ac1 transformation temperature and the original austenite content is retained in full after the forming, or at least 10% of the original austenite content is retained after the forming.
Use of a nonaqueous secondary battery electrolyte for a nonaqueous secondary battery, wherein the nonaqueous secondary battery electrolyte comprises a salt containing a charge carrier comprising a molecular ion, wherein the salt containing a molecular ion is a salt comprising: a molecular cation represented by Formula : wherein Y is N, P, S or O, and m is 3 for Y being O or S and m is 4 for Y being N or P; R 1 is the same or different, and is an alkyl group; the two R 1 may be bonded to form a ring together with adjacent Y; and a molecular anion represented by Formula : wherein Z is an atom of Group 15 of the periodic table; R 2 is the same or different, and is an alkyl group, an alkoxy group, a halogen atom, or a group represented by -SO 2 Rf, wherein Rf is a fluorine atom or a fluoroalkyl group; and n is an integer of 2 to 6; a triflate anion (CF 3 SO 3 - ), or a perchlorate ion. a molecular cation represented by Formula : wherein Y is N, P, S or O, and m is 3 for Y being O or S and m is 4 for Y being N or P; R 1 is the same or different, and is an alkyl group; the two R 1 may be bonded to form a ring together with adjacent Y; and a molecular anion represented by Formula : wherein Z is an atom of Group 15 of the periodic table; R 2 is the same or different, and is an alkyl group, an alkoxy group, a halogen atom, or a group represented by -SO 2 Rf, wherein Rf is a fluorine atom or a fluoroalkyl group; and n is an integer of 2 to 6; a triflate anion (CF 3 SO 3 - ), or a perchlorate ion.
Apparatus for assisting the exchange of blades on a mowing member of a mower, wherein the respective mowing member comprises a mowing disk , a blade carrier and at least one blade which is mounted on the blade carrier via a pin which is connected to the blade carrier and which extends through a recess in the mowing disk , comprising a lever device which has at one end an actuating handle which can be actuated by hand, and which has at a second end at least one bending-open body , the blade carrier and the mowing disk of the respective mowing member being able to be displaced thereby relative to one another such that, for performing the exchange of blades, the pin which is connected to the blade carrier can be moved out of the recess in the mowing disk , characterized by a support device which is mounted in an articulated manner on the lever device and which is supported on the mowing disk during a bending-open process, and at least one spring element which assists the bending-open process via the at least one bending-open body . comprising a lever device which has at one end an actuating handle which can be actuated by hand, and which has at a second end at least one bending-open body , the blade carrier and the mowing disk of the respective mowing member being able to be displaced thereby relative to one another such that, for performing the exchange of blades, the pin which is connected to the blade carrier can be moved out of the recess in the mowing disk , characterized by a support device which is mounted in an articulated manner on the lever device and which is supported on the mowing disk during a bending-open process, and at least one spring element which assists the bending-open process via the at least one bending-open body .
A method for soft-field electrical impedance tomography reconstruction, the method comprising: obtaining applied electrical input and measured electrical output information for an excited object using a plurality of transducers ; forming an admittance matrix based on the applied input and measured output information, the admittance matrix including a plurality of admittance elements; transforming the admittance matrix into a transformed admittance matrix using a symmetrical component transform (SCT) approach; determining a plurality of moments of a moment matrix using the transformed admittance matrix and a precomputed coefficient relating the transformed admittance matrix to the moments of the moment matrix, wherein the moment matrix is defined by an electrical property of the excited object to be calculated and a structure matrix, the structure matrix being precomputed based on the geometry of a soft-field tomography instrument that obtains the applied input and measured output information for the excited object using the plurality of transducers ; and calculating the property distribution of the excited object using the plurality of moments. obtaining applied electrical input and measured electrical output information for an excited object using a plurality of transducers ; forming an admittance matrix based on the applied input and measured output information, the admittance matrix including a plurality of admittance elements; transforming the admittance matrix into a transformed admittance matrix using a symmetrical component transform (SCT) approach; determining a plurality of moments of a moment matrix using the transformed admittance matrix and a precomputed coefficient relating the transformed admittance matrix to the moments of the moment matrix, wherein the moment matrix is defined by an electrical property of the excited object to be calculated and a structure matrix, the structure matrix being precomputed based on the geometry of a soft-field tomography instrument that obtains the applied input and measured output information for the excited object using the plurality of transducers ; and calculating the property distribution of the excited object using the plurality of moments.
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising a first polymer obtained by graft polymerization of an aromatic vinyl-based monomer and a vinyl cyanide-based monomer to a diene-based rubber polymer, a second polymer comprising maleimide-based monomer units, maleic acid-based monomer units, and aromatic vinyl-based monomer units, and a third polymer including aromatic vinyl-based monomer units and vinyl cyanide-based monomer units; and 1 part by weight to 3 parts by weight of a fourth polymer comprising polyvinyl alcohol. 100 parts by weight of a base resin comprising a first polymer obtained by graft polymerization of an aromatic vinyl-based monomer and a vinyl cyanide-based monomer to a diene-based rubber polymer, a second polymer comprising maleimide-based monomer units, maleic acid-based monomer units, and aromatic vinyl-based monomer units, and a third polymer including aromatic vinyl-based monomer units and vinyl cyanide-based monomer units; and 1 part by weight to 3 parts by weight of a fourth polymer comprising polyvinyl alcohol.
A process for operating an off-gas incinerator, the process comprising: introducing a flow of a reactant stream comprising hydrocarbon, ammonia and air into an ammoxidation reactor, wherein the hydrocarbon in the reactant stream is selected from the group consisting of propane, propylene, isobutene, isobutylene and mixtures thereof; determining an amount of hydrocarbon in the reactant stream and determining a feed rate of the reactant stream; conveying a gaseous reactor effluent comprising acrylonitrile from the ammoxidation reactor to an absorber wherein acrylonitrile is absorbed in an absorber aqueous stream; supplying an absorber off-gas from the absorber to an absorber off-gas incinerator; and supplying fuel gas and air to the absorber off-gas incinerator; wherein feedforward variables are used to adjust a set of manipulated variables to thereby control at least one set of controlled variables, wherein the feedforward variables include the amount of hydrocarbon in the reactant stream and the feed rate of the reactant stream, the set of manipulated variables includes fuel gas flow to the absorber off-gas incinerator and the air flow to the absorber off-gas incinerator, and the set of controlled variables includes an amount of oxygen in the absorber off-gas incinerator stack gas and a temperature in the absorber off-gas incinerator. introducing a flow of a reactant stream comprising hydrocarbon, ammonia and air into an ammoxidation reactor, wherein the hydrocarbon in the reactant stream is selected from the group consisting of propane, propylene, isobutene, isobutylene and mixtures thereof; determining an amount of hydrocarbon in the reactant stream and determining a feed rate of the reactant stream; conveying a gaseous reactor effluent comprising acrylonitrile from the ammoxidation reactor to an absorber wherein acrylonitrile is absorbed in an absorber aqueous stream; supplying an absorber off-gas from the absorber to an absorber off-gas incinerator; and supplying fuel gas and air to the absorber off-gas incinerator; wherein feedforward variables are used to adjust a set of manipulated variables to thereby control at least one set of controlled variables, wherein the feedforward variables include the amount of hydrocarbon in the reactant stream and the feed rate of the reactant stream, the set of manipulated variables includes fuel gas flow to the absorber off-gas incinerator and the air flow to the absorber off-gas incinerator, and the set of controlled variables includes an amount of oxygen in the absorber off-gas incinerator stack gas and a temperature in the absorber off-gas incinerator.
A method for wireless communication, comprising: transmitting, by a base station to a mobile station , higher layer signaling indicating information for locating a control information region on at least the first component carrier among an aggregation of plural component carriers; sending, to the mobile station , control information in resource blocks, RBs, of a physical downlink shared channel region in the first of the plural component carriers based in part on the higher layer signaling, wherein the RBs comprising the control information are divided into resource element groups, REGs, and control channel elements, CCEs, wherein the physical downlink shared channel region is located within orthogonal frequency division multiplexing, OFDM, symbols following a physical downlink control channel region in a subframe, wherein the control information indicates a resource assignment on at least a second carrier of the plural component carriers, different from the first carrier , and wherein the second carrier is identified in the control information of the first carrier by a component carrier number; and communicating, with the mobile station , using the control information on the first carrier and the resource assignment on the second carrier . transmitting, by a base station to a mobile station , higher layer signaling indicating information for locating a control information region on at least the first component carrier among an aggregation of plural component carriers; sending, to the mobile station , control information in resource blocks, RBs, of a physical downlink shared channel region in the first of the plural component carriers based in part on the higher layer signaling, wherein the RBs comprising the control information are divided into resource element groups, REGs, and control channel elements, CCEs, wherein the physical downlink shared channel region is located within orthogonal frequency division multiplexing, OFDM, symbols following a physical downlink control channel region in a subframe, wherein the control information indicates a resource assignment on at least a second carrier of the plural component carriers, different from the first carrier , and wherein the second carrier is identified in the control information of the first carrier by a component carrier number; and communicating, with the mobile station , using the control information on the first carrier and the resource assignment on the second carrier .
A power tool comprising: a housing ; a brushless DC motor housed inside an upper body of the housing; a control unit housed inside a handle of the housing , the control unit comprising a micro-controller mounted on a control circuit board , a power unit electronically coupled to the micro-controller and mounted on a power circuit board arranged substantially parallel the control circuit board inside the handle, and a heat sink in thermal contact with the power unit ; and an input unit , a portion of which is integrally mounted on the control circuit board ; wherein the control unit further comprises a potted control unit including a potting boat and a potting compound , the potting boat containing the control circuit board and the power circuit board , the potting boat having a cut-out portion to facilitate mounting the input unit on the control circuit board , characterized in that the cut-out portion of the potting boat includes a groove and the input unit includes a tongue fittingly corresponding to the groove to form a labyrinth to form a dam for the potting process which traps the potting compound inside the potting boat and prevents it from pouring out of the potting boat . a housing ; a brushless DC motor housed inside an upper body of the housing; a control unit housed inside a handle of the housing , the control unit comprising a micro-controller mounted on a control circuit board , a power unit electronically coupled to the micro-controller and mounted on a power circuit board arranged substantially parallel the control circuit board inside the handle, and a heat sink in thermal contact with the power unit ; and an input unit , a portion of which is integrally mounted on the control circuit board ; wherein the control unit further comprises a potted control unit including a potting boat and a potting compound , the potting boat containing the control circuit board and the power circuit board , the potting boat having a cut-out portion to facilitate mounting the input unit on the control circuit board , characterized in that the cut-out portion of the potting boat includes a groove and the input unit includes a tongue fittingly corresponding to the groove to form a labyrinth to form a dam for the potting process which traps the potting compound inside the potting boat and prevents it from pouring out of the potting boat .
An excavator , comprising: a lower traveling body ; an upper turning body pivotally installed to the lower traveling body ; an engine installed in the upper turning body ; an oil hydraulic pump driven by the engine ; and a controller configured to control a flow rate of hydraulic oil discharged by the oil hydraulic pump , wherein the controller is configured to, when a load of the engine increases, delay a response of the oil hydraulic pump until an actual torque of the engine rises to a level corresponding to the load of the engine . a lower traveling body ; an upper turning body pivotally installed to the lower traveling body ; an engine installed in the upper turning body ; an oil hydraulic pump driven by the engine ; and a controller configured to control a flow rate of hydraulic oil discharged by the oil hydraulic pump , wherein the controller is configured to, when a load of the engine increases, delay a response of the oil hydraulic pump until an actual torque of the engine rises to a level corresponding to the load of the engine .
A computer implemented method comprising: receiving parameter information associated with an entrance pupil of an omnidirectional lens , wherein the parameter information comprises one or more entrance pupil coefficients and a value representing a total number of entrance pupil coefficients; storing one or more elements of the parameter information in one or more data structures; and providing the one or more data structures for use in one or more image formation tasks, wherein the parameter information further comprises entrance pupil distortion correction parameters, and wherein the entrance pupil distortion correction parameters are used to correct a camera_centre_offset ( O Z ) to its real optical center (Cw) in external camera coordinates, characterized in that full correction under varying entrance pupil equates to θ = ∑ j = 0 N i − 1 p j ∗ r j + EP θ , wherein θ represents an angle of a sphere coordinate of a luma sample (p , p ) from a normal vector of a nominal imaging plane that passes through a center (c) of a sphere coordinate system for an active area of a circular image, N i represents the total number of entrance pupil coefficients, p j represents a polynomial coefficient, r represents a normalized distance of the luma sample from a center of the circular image, and EP( θ ) is defined by an entrance pupil equation ∑ j = 3 M i − 1 q j ∗ r j , wherein M i represents three more than the total number of entrance pupil coefficients and q j represents one or more instances of polynomial coefficient values EP_coeffs. receiving parameter information associated with an entrance pupil of an omnidirectional lens , wherein the parameter information comprises one or more entrance pupil coefficients and a value representing a total number of entrance pupil coefficients; storing one or more elements of the parameter information in one or more data structures; and providing the one or more data structures for use in one or more image formation tasks, wherein the parameter information further comprises entrance pupil distortion correction parameters, and wherein the entrance pupil distortion correction parameters are used to correct a camera_centre_offset ( O Z ) to its real optical center (Cw) in external camera coordinates, characterized in that full correction under varying entrance pupil equates to θ = ∑ j = 0 N i − 1 p j ∗ r j + EP θ , wherein θ represents an angle of a sphere coordinate of a luma sample (p , p ) from a normal vector of a nominal imaging plane that passes through a center (c) of a sphere coordinate system for an active area of a circular image, N i represents the total number of entrance pupil coefficients, p j represents a polynomial coefficient, r represents a normalized distance of the luma sample from a center of the circular image, and EP( θ ) is defined by an entrance pupil equation ∑ j = 3 M i − 1 q j ∗ r j , wherein M i represents three more than the total number of entrance pupil coefficients and q j represents one or more instances of polynomial coefficient values EP_coeffs.
A method of governing the elevation, attitude and structural integrity of a pressure-containing vessel (V, 10, 40, 70, 100, 161, 163, 165) in a body of liquid (L, W), the method comprising the steps of: selecting a flotation medium (M F ) which is capable of increasing the buoyancy of the vessel (V); selecting an incompressible ballast medium (M B ) which is capable of decreasing the buoyancy of the vessel (V); dividing the vessel (V) into reciprocal serial hydraulically discrete compartments, one compartment (C F , 33, 63, 93, 123) for containing the selected flotation medium (M F ) and the other compartment (C B , 35, 65, 95, 125) for containing the selected incompressible ballast medium (M B ); counterbalancing the selected flotation medium (M F ) in the flotation medium compartment (C F ) against the selected incompressible ballast medium (M B ) in the ballast medium compartment (C B ); varying the quantity of incompressible ballast medium (M B ) in the ballast medium compartment (C B ) to control the elevation of the pressure-containing vessel (V) in the body of liquid (L); and measuring the quantity of incompressible ballast medium (M B ) injected into and exhausted from the ballast medium compartment (C B ) during said step of varying the quantity of incompressible ballast medium (M B ) in the ballast medium compartment (C B ). selecting a flotation medium (M F ) which is capable of increasing the buoyancy of the vessel (V); selecting an incompressible ballast medium (M B ) which is capable of decreasing the buoyancy of the vessel (V); dividing the vessel (V) into reciprocal serial hydraulically discrete compartments, one compartment (C F , 33, 63, 93, 123) for containing the selected flotation medium (M F ) and the other compartment (C B , 35, 65, 95, 125) for containing the selected incompressible ballast medium (M B ); counterbalancing the selected flotation medium (M F ) in the flotation medium compartment (C F ) against the selected incompressible ballast medium (M B ) in the ballast medium compartment (C B ); varying the quantity of incompressible ballast medium (M B ) in the ballast medium compartment (C B ) to control the elevation of the pressure-containing vessel (V) in the body of liquid (L); and measuring the quantity of incompressible ballast medium (M B ) injected into and exhausted from the ballast medium compartment (C B ) during said step of varying the quantity of incompressible ballast medium (M B ) in the ballast medium compartment (C B ).
A pharmaceutical composition comprising: (i) a drug component consisting of at least one indacaterol compound selected from indacaterol and indacaterol maleate; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (HFA-152a). (i) a drug component consisting of at least one indacaterol compound selected from indacaterol and indacaterol maleate; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (HFA-152a).