mhurhangee/patent-ind-claim-en huggingface dataset:
An audio processor for processing a subband representation of an audio signal to obtain the audio signal , the audio processor comprising: an inverse time domain aliasing reduction stage configured to perform a weighted combination of a first aliasing reduced subband representation of the audio signal and a second aliasing reduced subband representation of the audio signal , to obtain an aliased subband representation, wherein the aliased subband representation is a set (110_1,1) of subband samples; and a cascaded inverse lapped critically sampled transform stage configured to perform a cascaded inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of samples associated with a block of samples of the audio signal ; wherein the cascaded inverse lapped critically sampled transform stage comprises a first inverse lapped critically sampled transform stage configured to perform an inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of bins (128_1,1) associated with a given subband of the audio signal; and a first overlap and add stage configured to perform a concatenation of sets of bins associated with a plurality of subbands of the audio signal, which comprises a weighted combination of the set (128_1,1) of bins associated with the given subband of the audio signal with a set (128_1,2) of bins associated with another subband of the audio signal , to obtain a set (124_1) of bins associated with a block of samples of the audio signal . an inverse time domain aliasing reduction stage configured to perform a weighted combination of a first aliasing reduced subband representation of the audio signal and a second aliasing reduced subband representation of the audio signal , to obtain an aliased subband representation, wherein the aliased subband representation is a set (110_1,1) of subband samples; and a cascaded inverse lapped critically sampled transform stage configured to perform a cascaded inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of samples associated with a block of samples of the audio signal ; wherein the cascaded inverse lapped critically sampled transform stage comprises a first inverse lapped critically sampled transform stage configured to perform an inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of bins (128_1,1) associated with a given subband of the audio signal; and a first overlap and add stage configured to perform a concatenation of sets of bins associated with a plurality of subbands of the audio signal, which comprises a weighted combination of the set (128_1,1) of bins associated with the given subband of the audio signal with a set (128_1,2) of bins associated with another subband of the audio signal , to obtain a set (124_1) of bins associated with a block of samples of the audio signal .
A cutting tool comprising: - a loop-wound chain wound about at least a drive crown activated in rotation by a motor , - a lubricating circuit of the chain provided with a tank of lubricating fluid, a pump and having an aspirating conduit of the fluid provided with an aspirating mouth located internally of the tank , and a delivery conduit provided with an outlet mouth located in proximity of the chain , - a sensor able to detect the lubricating fluid in the lubricating circuit , characterised in that the pump is drawn by the motor and in that the sensor is an optical sensor fixed inside the tank and arranged substantially coaxial to the aspirating mouth of the aspirating conduit . - a loop-wound chain wound about at least a drive crown activated in rotation by a motor , - a lubricating circuit of the chain provided with a tank of lubricating fluid, a pump and having an aspirating conduit of the fluid provided with an aspirating mouth located internally of the tank , and a delivery conduit provided with an outlet mouth located in proximity of the chain , - a sensor able to detect the lubricating fluid in the lubricating circuit , characterised in that the pump is drawn by the motor and in that the sensor is an optical sensor fixed inside the tank and arranged substantially coaxial to the aspirating mouth of the aspirating conduit .
A ski boot , comprising: a shell that includes: a leg portion that has a shin region and a highback leg support region that acts to firmly support a portion of a leg of a person when the person is using the ski boot; a foot portion for receiving a foot of the person when the person is using the ski boot, said foot portion having an instep region and an instep transition region providing a directional transition between said instep region and said shin region of said leg portion, said foot portion including a toe end, a heel end and a sole portion, said sole portion extending from said toe end to said heel end, said foot portion having a lateral portion and a medial portion and being substantially rigid in a direction parallel to a longitudinal vertical plane that bisects said foot portion into said lateral portion and said medial portion; a heel pocket for inhibiting movement of a heel of the person in a direction away from said sole portion when the person is using the ski boot; a heel track extending between said highback support region and said heel pocket and forming a concave space interior to said shell, said heel track receiving the heel of the person to accommodate the substantial rigidity of said foot portion in the direction parallel to the longitudinal vertical plane when the person is inserting the foot into the ski boot; and an outsole that includes features for securing the ski boot to a ski binding. a leg portion that has a shin region and a highback leg support region that acts to firmly support a portion of a leg of a person when the person is using the ski boot; a foot portion for receiving a foot of the person when the person is using the ski boot, said foot portion having an instep region and an instep transition region providing a directional transition between said instep region and said shin region of said leg portion, said foot portion including a toe end, a heel end and a sole portion, said sole portion extending from said toe end to said heel end, said foot portion having a lateral portion and a medial portion and being substantially rigid in a direction parallel to a longitudinal vertical plane that bisects said foot portion into said lateral portion and said medial portion; a heel pocket for inhibiting movement of a heel of the person in a direction away from said sole portion when the person is using the ski boot; a heel track extending between said highback support region and said heel pocket and forming a concave space interior to said shell, said heel track receiving the heel of the person to accommodate the substantial rigidity of said foot portion in the direction parallel to the longitudinal vertical plane when the person is inserting the foot into the ski boot; and an outsole that includes features for securing the ski boot to a ski binding.
Cutting machine for cutting a glass sheet, the machine comprising: - at least one support table for resting the sheet to be cut , - incision means for making at least one incision line on the sheet; and - at least one thrust bridge for thrusting the sheet against the support table ; said thrust bridge comprising a rigid cross member facing said support table, and at least one flexible hollow body integrally connected to said rigid cross member and delimiting at least one sealed chamber that can be pressurized by a pressurized fluid and extends for the entire length of said rigid cross member ; characterized in that said flexible hollow body is stably connected to a wall of said thrust bridge and in a position facing said support table so as to generate a thrust directly on said sheet. - at least one support table for resting the sheet to be cut , - incision means for making at least one incision line on the sheet; and - at least one thrust bridge for thrusting the sheet against the support table ; said thrust bridge comprising a rigid cross member facing said support table, and at least one flexible hollow body integrally connected to said rigid cross member and delimiting at least one sealed chamber that can be pressurized by a pressurized fluid and extends for the entire length of said rigid cross member ;
A parts feeder, which is configured to feed parts each having an angular projecting portion, such as a bolt with a washer , a bolt with a hexagonal head part and a flange , a shaft-like part with a head part , and a projection nut with a welding projection, to cause entanglement or clogging of the parts , the parts feeder comprising: a lower portion formed in a vicinity of an end portion of a bottom member of a storage container ; a lift member configured to lift the part kept on standby on the lower portion , the lift member being made of a stainless steel which is a nonmagnetic material and arranged in a state of being movable up and down along an inner wall of the storage container ; a transport unit configured to transport the part , which is lifted and transferred thereto by the lift member , to a target position, a position at which the part is transferred to the transport unit being set in a vicinity of an upper position of the lift member ; wherein the parts feeder is characterized by comprising a sucking unit configured to partially suck the mass of parts in which the parts are in a tangled state inside the storage container toward the lower portion , the sucking unit being a permanent magnet or an electromagnet embedded in the lift member at a height position at which the part can be attracted toward the lower portion when the lift member is positioned at a highest level, so that the sucking unit is configured to separate the part from the mass of parts to attract the part toward the lower portion . a lower portion formed in a vicinity of an end portion of a bottom member of a storage container ; a lift member configured to lift the part kept on standby on the lower portion , the lift member being made of a stainless steel which is a nonmagnetic material and arranged in a state of being movable up and down along an inner wall of the storage container ; a transport unit configured to transport the part , which is lifted and transferred thereto by the lift member , to a target position, a position at which the part is transferred to the transport unit being set in a vicinity of an upper position of the lift member ; wherein the parts feeder is characterized by comprising a sucking unit configured to partially suck the mass of parts in which the parts are in a tangled state inside the storage container toward the lower portion , the sucking unit being a permanent magnet or an electromagnet embedded in the lift member at a height position at which the part can be attracted toward the lower portion when the lift member is positioned at a highest level, so that the sucking unit is configured to separate the part from the mass of parts to attract the part toward the lower portion .
A system for cooling a component of a gas turbine engine defining a radial direction (R), the system comprising: a turbine rotor blade defining a cooling passage for providing a cooling airflow through the turbine rotor blade , the cooling passage having an inlet and an outlet spaced from the inlet along the radial direction (R), the turbine rotor blade comprising a blade tip , the outlet of the cooling passage formed on the blade tip of the turbine blade ; a casing spaced from the blade tip along the radial direction (R), the casing defining an aperture in airflow communication with the outlet of the cooling passage ; and a coolant duct assembly in airflow communication with the aperture of the casing for receiving at least a portion of the cooling airflow from the outlet of the cooling passage in the turbine rotor blade and distributing the cooling airflow to the component of the gas turbine engine ; characterised in that the coolant duct assembly further includes a heat exchanger for removing heat from the cooling airflow to be provided to the component. a turbine rotor blade defining a cooling passage for providing a cooling airflow through the turbine rotor blade , the cooling passage having an inlet and an outlet spaced from the inlet along the radial direction (R), the turbine rotor blade comprising a blade tip , the outlet of the cooling passage formed on the blade tip of the turbine blade ; a casing spaced from the blade tip along the radial direction (R), the casing defining an aperture in airflow communication with the outlet of the cooling passage ; and a coolant duct assembly in airflow communication with the aperture of the casing for receiving at least a portion of the cooling airflow from the outlet of the cooling passage in the turbine rotor blade and distributing the cooling airflow to the component of the gas turbine engine ; characterised in that the coolant duct assembly further includes a heat exchanger for removing heat from the cooling airflow to be provided to the component.
A piston for an internal combustion engine, in particular a diesel engine, consisting of an iron-based alloy having the following alloy elements in percent by weight (wt.%): Carbon (C): 0.07 to 0.24; Chromium (Cr): > 7.0 to 12.5; Molybdenum (Mo): 0.3 to 1.2; Manganese (Mn): 0.3 to 0.9; Silicon (Si): < 0.5; Copper (Cu): < 0.3; Nickel (Ni): < 0.8; Vanadium (V): 0.15 to 0.35; Sulfur (S): < 0.015; Phosphorus (P): < 0.025; Niobium (Nb): < 0.1; Nitrogen (N) : < 0.07; Aluminum (Al): < 0.04; Tungsten (W): < 2.5 and the remainder being iron (Fe) and unavoidable impurities.
A harvesting machine, in particular a self-propelled harvesting machine, with an optical measuring device for the spectral measurement of a sample, which is provided and configured so as to measure harvested material of the harvesting machine, characterized in that the optical measuring device for the spectral measurement of a sample comprises the following: - an integrating cavity which has a diffusely reflective interior in order to render light in the integrating cavity diffuse; - a light source which is configured to emit light with a predetermined range of wavelengths into the integrating cavity ; - a sensor which is configured to receive light from the integrating cavity ; wherein the integrating cavity comprises an optical opening , wherein the measuring device is provided and configured so as to measure a sample located outside the integrating cavity directly in front of the optical opening , wherein a first cover is located inside the cavity and can be moved inside the cavity in a manner such that no light can pass through the opening . the optical measuring device for the spectral measurement of a sample comprises the following: - an integrating cavity which has a diffusely reflective interior in order to render light in the integrating cavity diffuse; - a light source which is configured to emit light with a predetermined range of wavelengths into the integrating cavity ; - a sensor which is configured to receive light from the integrating cavity ; - an integrating cavity which has a diffusely reflective interior in order to render light in the integrating cavity diffuse; - a light source which is configured to emit light with a predetermined range of wavelengths into the integrating cavity ; - a sensor which is configured to receive light from the integrating cavity ; wherein the integrating cavity comprises an optical opening , wherein the measuring device is provided and configured so as to measure a sample located outside the integrating cavity directly in front of the optical opening , wherein a first cover is located inside the cavity and can be moved inside the cavity in a manner such that no light can pass through the opening .
A side arm hybrid prosthesis for deployment in a body vessel, the prosthesis comprising: a tubular stent body comprising a wire comprising a shape memory alloy, the tubular stent body having a self-expanding portion comprising a distal portion of the wire and a balloon-expandable portion comprising a proximal portion of the wire, wherein the distal portion of the wire has a helical configuration comprising bent wire first portions alternating with straight wire first portions in a helical zigzag pattern about a longitudinal axis of the stent body, wherein the proximal portion of the wire has a ring-like configuration including one or more rings centered about a longitudinal axis of the stent body, each of the one or more rings including bent wire second portions alternating with straight wire second portions in a circumferential zigzag pattern about the longitudinal axis, and wherein the balloon-expandable portion comprising the proximal portion of the wire comprises a flareable end portion for securing the side arm prosthesis to a main body prosthesis , wherein the flareable end portion ensures proper engagement between the main body prosthesis and the side arm prosthesis. a tubular stent body comprising a wire comprising a shape memory alloy, the tubular stent body having a self-expanding portion comprising a distal portion of the wire and a balloon-expandable portion comprising a proximal portion of the wire, wherein the distal portion of the wire has a helical configuration comprising bent wire first portions alternating with straight wire first portions in a helical zigzag pattern about a longitudinal axis of the stent body, wherein the proximal portion of the wire has a ring-like configuration including one or more rings centered about a longitudinal axis of the stent body, each of the one or more rings including bent wire second portions alternating with straight wire second portions in a circumferential zigzag pattern about the longitudinal axis, and wherein the balloon-expandable portion comprising the proximal portion of the wire comprises a flareable end portion for securing the side arm prosthesis to a main body prosthesis , wherein the flareable end portion ensures proper engagement between the main body prosthesis and the side arm prosthesis.
A method for antenna array switching for a User Equipment, UE, the method comprising: detecting , by the UE , at least one orientation parameter of the UE using one or more sensors of the UE ; comparing , by the UE , a current signal strength parameter value of one or more serving Antenna Array Modules, AAMs, of the UE with a first threshold value or comparing a non-serving AAM module monitor timer of the UE with a second threshold value; comparing , by the UE, the at least one orientation parameter with a third threshold value based on the current signal strength parameter value of one or more serving AAMs of the UE being less than the first threshold value or based on the non-serving AAM module monitor timer of the UE exceeding the second threshold value; based on the at least one orientation parameter not exceeding the third threshold value, not performing, by the UE, measurements on one or more non-serving AAMs of the UE; based on the at least one orientation parameter exceeding the third threshold value, performing , by the UE, the measurements on the one or more non-serving AAMs of the UE; and selecting , by the UE, at least one of the one or more serving AAMs of the UE and the one or more non-serving AAMs of the UE based on the measurements performed on the one or more non-serving AAMs of the UE. detecting , by the UE , at least one orientation parameter of the UE using one or more sensors of the UE ; comparing , by the UE , a current signal strength parameter value of one or more serving Antenna Array Modules, AAMs, of the UE with a first threshold value or comparing a non-serving AAM module monitor timer of the UE with a second threshold value; comparing , by the UE, the at least one orientation parameter with a third threshold value based on the current signal strength parameter value of one or more serving AAMs of the UE being less than the first threshold value or based on the non-serving AAM module monitor timer of the UE exceeding the second threshold value; based on the at least one orientation parameter not exceeding the third threshold value, not performing, by the UE, measurements on one or more non-serving AAMs of the UE; based on the at least one orientation parameter exceeding the third threshold value, performing , by the UE, the measurements on the one or more non-serving AAMs of the UE; and selecting , by the UE, at least one of the one or more serving AAMs of the UE and the one or more non-serving AAMs of the UE based on the measurements performed on the one or more non-serving AAMs of the UE. performing , by the UE, the measurements on the one or more non-serving AAMs of the UE; and selecting , by the UE, at least one of the one or more serving AAMs of the UE and the one or more non-serving AAMs of the UE based on the measurements performed on the one or more non-serving AAMs of the UE.
A measuring chip , comprising: an incoming part into which light is introduced; a propagating part having two main surfaces facing each other where the light propagates while totally reflecting between the main surfaces; an outgoing part from which light is led out; and a reactor having reactants arranged in a stripe shape that is formed in a propagating direction (Y) of the light in the propagating part and that is periodically arranged in a direction (X) perpendicular to the propagating direction (Y) of the light and the reactants react with a to-be-detected substance on at least one of the main surfaces, configured to change a complex amplitude distribution in the direction (X) perpendicular to the propagating direction (Y) of the light, the reactor is configured to reflect the light propagating in the propagating part a plurality of times in the propagating direction (Y), and to accumulate the change of the complex amplitude distribution. an incoming part into which light is introduced; a propagating part having two main surfaces facing each other where the light propagates while totally reflecting between the main surfaces; an outgoing part from which light is led out; and a reactor having reactants arranged in a stripe shape that is formed in a propagating direction (Y) of the light in the propagating part and that is periodically arranged in a direction (X) perpendicular to the propagating direction (Y) of the light and the reactants react with a to-be-detected substance on at least one of the main surfaces, configured to change a complex amplitude distribution in the direction (X) perpendicular to the propagating direction (Y) of the light, the reactor is configured to reflect the light propagating in the propagating part a plurality of times in the propagating direction (Y), and to accumulate the change of the complex amplitude distribution.
A method comprising: receiving , by a first base station from a second base station, a first message comprising configuration information indicating a first number of a first quantity of beams for measuring a quality of a first cell of the second base station; transmitting , by the first base station to a wireless device, a second message comprising measurement configuration parameters indicating the first number of the first quantity of beams for measuring the quality of the first cell by the wireless device; and receiving , by the first base station from the wireless device, a measurement report indicating the quality of the first cell measured based on the first number of beams. receiving , by a first base station from a second base station, a first message comprising configuration information indicating a first number of a first quantity of beams for measuring a quality of a first cell of the second base station; transmitting , by the first base station to a wireless device, a second message comprising measurement configuration parameters indicating the first number of the first quantity of beams for measuring the quality of the first cell by the wireless device; and receiving , by the first base station from the wireless device, a measurement report indicating the quality of the first cell measured based on the first number of beams.