mhurhangee/patent-ind-claim-en huggingface dataset:
An ultraviolet lamp system comprising: a bulb ; at least one magnetron configured to emit microwave energy configured to be received by the bulb ; and a power supply configured to provide electrical energy to the at least one magnetron , wherein the at least one magnetron includes (i) a first magnetron configured to emit microwave energy configured to be received by the bulb , and (ii) a second magnetron configured to emit microwave energy configured to be received by the bulb , wherein the power supply is adapted to modulate the electrical energy provided to each of the first magnetron and the second magnetron such that light output from the bulb is more uniform in at least one of intensity and spectral output, characterized in that the bulb is configured to be operated in a vertical orientation, and wherein the first magnetron is configured to emit microwave energy configured to be received by a lower portion of the bulb in the vertical configuration, and wherein the second magnetron is configured to emit microwave energy configured to be received by an upper portion of the bulb in the vertical configuration, wherein the power supply is configured to operate to repeatedly remove or reduce the electrical energy provided to each of the first magnetron and the second magnetron according to a pattern whereby the electrical energy is removed from the first magnetron prior to removal of the electrical energy from the second magnetron . a bulb ; at least one magnetron configured to emit microwave energy configured to be received by the bulb ; and a power supply configured to provide electrical energy to the at least one magnetron , wherein the at least one magnetron includes (i) a first magnetron configured to emit microwave energy configured to be received by the bulb , and (ii) a second magnetron configured to emit microwave energy configured to be received by the bulb , wherein the power supply is adapted to modulate the electrical energy provided to each of the first magnetron and the second magnetron such that light output from the bulb is more uniform in at least one of intensity and spectral output, characterized in that the bulb is configured to be operated in a vertical orientation, and wherein the first magnetron is configured to emit microwave energy configured to be received by a lower portion of the bulb in the vertical configuration, and wherein the second magnetron is configured to emit microwave energy configured to be received by an upper portion of the bulb in the vertical configuration, wherein the power supply is configured to operate to repeatedly remove or reduce the electrical energy provided to each of the first magnetron and the second magnetron according to a pattern whereby the electrical energy is removed from the first magnetron prior to removal of the electrical energy from the second magnetron .
A method of making a sensor assembly, comprising: fusing a metallic particulate using an additive manufacturing technique to define a mounting portion arranged to support a sensing device; fusing the metallic particulate to define a thermal shunt portion extending from the mounting portion; and fusing the metallic particulate to define a housing portion extending from the thermal shunt portion, wherein the housing portion is arranged on a side of the thermal shunt portion opposite the mounting portion to limit temperature of a sensor connector fixed to the housing portion of the sensor assembly; wherein: the thermal shunt portion comprises an airfoil structure extending between the housing portion and the mounting portion of the sensor assembly, wherein the airfoil structure comprises a plurality of airfoils each having a leading edge , wherein the leading edge extends between the mounting portion and the housing portion of the sensor assembly; or wherein the thermal shunt portion comprises a lattice structure extending between the housing portion and the mounting portion of the sensor assembly, the lattice structure including a plurality of stringers having gaps therebetween. fusing a metallic particulate using an additive manufacturing technique to define a mounting portion arranged to support a sensing device; fusing the metallic particulate to define a thermal shunt portion extending from the mounting portion; and fusing the metallic particulate to define a housing portion extending from the thermal shunt portion, wherein the housing portion is arranged on a side of the thermal shunt portion opposite the mounting portion to limit temperature of a sensor connector fixed to the housing portion of the sensor assembly; wherein: the thermal shunt portion comprises an airfoil structure extending between the housing portion and the mounting portion of the sensor assembly, wherein the airfoil structure comprises a plurality of airfoils each having a leading edge , wherein the leading edge extends between the mounting portion and the housing portion of the sensor assembly; or wherein the thermal shunt portion comprises a lattice structure extending between the housing portion and the mounting portion of the sensor assembly, the lattice structure including a plurality of stringers having gaps therebetween. the thermal shunt portion comprises an airfoil structure extending between the housing portion and the mounting portion of the sensor assembly, wherein the airfoil structure comprises a plurality of airfoils each having a leading edge , wherein the leading edge extends between the mounting portion and the housing portion of the sensor assembly; or wherein the thermal shunt portion comprises a lattice structure extending between the housing portion and the mounting portion of the sensor assembly, the lattice structure including a plurality of stringers having gaps therebetween.
Use of a di(2-ethylhexyl)cyclohexane-1,4-dicarboxylate, di(isononyl)cyclohexane-1,4-dicarboxylate or di(2-propylheptyl)-cyclohexane-1,4-dicarboxylate having a cis content of 60-90% as a plasticizer for polyvinyl chloride (PVC).
A gas turbine engine comprising: an engine core including a low pressure compressor , a high pressure compressor , a high pressure turbine and a low pressure turbine fluidly connected in series by an annular core gaspath concentric to an engine axis (CL), the low pressure compressor and the low pressure turbine being coaxially mounted for rotation about the engine axis (CL); and an external shaft disposed radially outwardly of an outer circumference of the core gaspath and drivingly connecting the low pressure turbine to the low pressure compressor , characterised in that : the high pressure turbine is drivingly connected to the high pressure compressor via a high pressure shaft , the high pressure shaft being spaced radially inwardly from the core gaspath ; and the high pressure shaft is coaxial to the engine axis (CL), and the external shaft connecting the low pressure turbine to the low pressure compressor is radially offset from the high pressure shaft . an engine core including a low pressure compressor , a high pressure compressor , a high pressure turbine and a low pressure turbine fluidly connected in series by an annular core gaspath concentric to an engine axis (CL), the low pressure compressor and the low pressure turbine being coaxially mounted for rotation about the engine axis (CL); and an external shaft disposed radially outwardly of an outer circumference of the core gaspath and drivingly connecting the low pressure turbine to the low pressure compressor , the high pressure turbine is drivingly connected to the high pressure compressor via a high pressure shaft , the high pressure shaft being spaced radially inwardly from the core gaspath ; and the high pressure shaft is coaxial to the engine axis (CL), and the external shaft connecting the low pressure turbine to the low pressure compressor is radially offset from the high pressure shaft .
Effector device for engaging a target using electromagnetic pulses, comprising a source unit designed to emit the pulses and a parachute , to which the source unit is fastened, characterized in that the effector device additionally has a reflector unit which is arranged separately from a parachute surface of the parachute in a falling operating position with the parachute open and is designed to reflect electromagnetic pulses, emitted by the source unit , in the direction of the target.
A mobile communication system, wherein the system comprises: an anchor node , a donor node , a relay network , and a terminal , wherein the anchor node is connected to the donor node through a fixed connection, and the anchor node is an anchor point of a user plane and/or a control plane; the donor node is connected to the relay network through a first wireless connection, and the relay network is connected to the terminal through a second wireless connection; wherein the relay network comprises at least one relay node , and in the at least one relay node, there is a first relay node directly connected to the donor node , and there is a second relay node directly connected to the terminal ; wherein the anchor node is configured to generate a corresponding first packet data convergence protocol, PDCP, protocol data unit, PDU, for the terminal and send the first PDCP PDU to the donor node through the fixed connection. the anchor node is connected to the donor node through a fixed connection, and the anchor node is an anchor point of a user plane and/or a control plane; the donor node is connected to the relay network through a first wireless connection, and the relay network is connected to the terminal through a second wireless connection; wherein the relay network comprises at least one relay node , and in the at least one relay node, there is a first relay node directly connected to the donor node , and there is a second relay node directly connected to the terminal ; wherein the anchor node is configured to generate a corresponding first packet data convergence protocol, PDCP, protocol data unit, PDU, for the terminal and send the first PDCP PDU to the donor node through the fixed connection.
An in vitro method for the diagnosis and/or detection of and GI tract carcinoma, comprising the steps of (a) monitoring and/or detecting the level of expression of caspase-4 and/or caspase-5 in a and GI tract epithelial tissue and/or cells from a subject sample or biopsy; (b) comparing the level of expression of caspase-4 and/or caspase-5 in the sample or biopsy to the level of expression of caspase-4 and/or caspase-5 from a normal (negative) control and/or a positive control; and (c) identifying and/or diagnosing and GI tract carcinoma when a detectable level or positive deviation of the expression levels of caspase-4 and/or caspase-5 compared to a normal (negative) control and/or a positive control is present within the and GI tract epithelial tissue and/or cells sample or biopsy. (a) monitoring and/or detecting the level of expression of caspase-4 and/or caspase-5 in a and GI tract epithelial tissue and/or cells from a subject sample or biopsy; (b) comparing the level of expression of caspase-4 and/or caspase-5 in the sample or biopsy to the level of expression of caspase-4 and/or caspase-5 from a normal (negative) control and/or a positive control; and (c) identifying and/or diagnosing and GI tract carcinoma when a detectable level or positive deviation of the expression levels of caspase-4 and/or caspase-5 compared to a normal (negative) control and/or a positive control is present within the and GI tract epithelial tissue and/or cells sample or biopsy.
Refrigerating appliance comprising - a useful space with a first compartment , which is designed as a cooling compartment, and a second compartment , which is designed as a cold storage compartment, wherein the second compartment is arranged below the first compartment and the first compartment and the second compartment are separated from one another by a horizontal partition wall , - a heat pump with an evaporator , - a cooling air duct , - a first fan and a second fan for conveying air in the cooling air duct , the first fan being arranged behind the first compartment and the second fan being arranged behind the second compartment , the second fan being arranged below the horizontal partition wall , characterised in that the first fan , the second fan and the cooling air duct are arranged and designed in such a way that the first fan directs the air in the cooling air duct from top to bottom and the second fan directs the air in the cooling air duct from bottom to top, i.e. in the cooling air duct in the opposite direction, in such a way that the air conveyed by the first fan and the air conveyed by the second fan collide head-on in the cooling air duct. - a useful space with a first compartment , which is designed as a cooling compartment, and a second compartment , which is designed as a cold storage compartment, wherein the second compartment is arranged below the first compartment and the first compartment and the second compartment are separated from one another by a horizontal partition wall , - a heat pump with an evaporator , - a cooling air duct , - a first fan and a second fan for conveying air in the cooling air duct , the first fan being arranged behind the first compartment and the second fan being arranged behind the second compartment , the second fan being arranged below the horizontal partition wall ,
Capacitor assembly , comprising: a printed circuit board comprising a first conductive trace and a second conductive trace , and a first row of capacitors comprising a plurality of surface mounted capacitor elements (161-164), wherein each of the plurality of surface mounted capacitor elements comprises a pair of outer electrodes , wherein, of each of the plurality of capacitor elements (161-164), one of the pair of outer electrodes is mounted to the first conductive trace and defines a first junction, and the other one of the pair of outer electrodes is mounted to the second conductive trace and defines a second junction, wherein the first junction and the second junction define a first capacitor longitudinal axis , characterized in that the first conductive trace has a first current flow direction with a first oblique angle (α) relative to the first capacitor longitudinal axis . a printed circuit board comprising a first conductive trace and a second conductive trace , and a first row of capacitors comprising a plurality of surface mounted capacitor elements (161-164), wherein each of the plurality of surface mounted capacitor elements comprises a pair of outer electrodes , wherein, of each of the plurality of capacitor elements (161-164), one of the pair of outer electrodes is mounted to the first conductive trace and defines a first junction, and the other one of the pair of outer electrodes is mounted to the second conductive trace and defines a second junction, wherein the first junction and the second junction define a first capacitor longitudinal axis , characterized in that the first conductive trace has a first current flow direction with a first oblique angle (α) relative to the first capacitor longitudinal axis .
Direct time-of-flight depth imaging sensor comprising: - an array of photodetectors arranged in one or more subgroups , wherein each subgroup is divided into a plurality of minigroups of photodetectors ; - digital processing and communication units each associated to one of the minigroups , each comprising: ∘ a minigroup pixel address register to store an address of the photodetector in the respective minigroup which has detected the last photon detection event within a coincidence window, wherein the coincidence window corresponds to detection window of a fixed duration starting with the first photon detection event within the respective subgroup ; and ∘ a minigroup timestamp unit configured to store minigroup timestamp data of the last photon detection event received in the coincidence window; - a time to digital converter configured to generate a subgroup timestamp data about the first photon detection event in the subgroup during the coincidence window. - an array of photodetectors arranged in one or more subgroups , wherein each subgroup is divided into a plurality of minigroups of photodetectors ; - digital processing and communication units each associated to one of the minigroups , each comprising: ∘ a minigroup pixel address register to store an address of the photodetector in the respective minigroup which has detected the last photon detection event within a coincidence window, wherein the coincidence window corresponds to detection window of a fixed duration starting with the first photon detection event within the respective subgroup ; and ∘ a minigroup timestamp unit configured to store minigroup timestamp data of the last photon detection event received in the coincidence window; ∘ a minigroup pixel address register to store an address of the photodetector in the respective minigroup which has detected the last photon detection event within a coincidence window, wherein the coincidence window corresponds to detection window of a fixed duration starting with the first photon detection event within the respective subgroup ; and ∘ a minigroup timestamp unit configured to store minigroup timestamp data of the last photon detection event received in the coincidence window; - a time to digital converter configured to generate a subgroup timestamp data about the first photon detection event in the subgroup during the coincidence window.
An article of footwear comprising: an upper that has a lateral side , a medial side , and a throat area between the medial and lateral sides ; and a lace guide attached to the upper , the lace guide comprising a first portion that extends along the medial side of the upper , a second portion that extends along a lateral side of the upper , and an intermediate portion that extends between the first and second portions , wherein the first portion and second portion at least partly define a plurality of apertures that can receive a lace member , and the lace guide is a continuous piece of material that includes the first portion , the intermediate portion , and the second portion , wherein the intermediate portion comprises a first folded region adjacent the first portion and a second folded region adjacent the second portion , and wherein the lace guide comprises a first side and a second, opposite side , the first side forms a top surface of the lace guide along both the medial and lateral sides of the throat area , while the second side forms a top surface of the lace guide adjacent the forward end of the throat area . an upper that has a lateral side , a medial side , and a throat area between the medial and lateral sides ; and a lace guide attached to the upper , the lace guide comprising a first portion that extends along the medial side of the upper , a second portion that extends along a lateral side of the upper , and an intermediate portion that extends between the first and second portions , wherein the first portion and second portion at least partly define a plurality of apertures that can receive a lace member , and the lace guide is a continuous piece of material that includes the first portion , the intermediate portion , and the second portion , wherein the intermediate portion comprises a first folded region adjacent the first portion and a second folded region adjacent the second portion , and wherein the lace guide comprises a first side and a second, opposite side , the first side forms a top surface of the lace guide along both the medial and lateral sides of the throat area , while the second side forms a top surface of the lace guide adjacent the forward end of the throat area .
Antenna arrangement for a kitchen appliance, at least comprising an antenna body of sheet metal having: - a ground-connecting part at one end, - a shape part distal from the ground-connecting part , wherein an outer edge of said shape part has a curvature , - a slit in between the curvature in the sheet metal starting at an outer edge and extending in a longitudinal direction of the antenna body, and - a feed located within the slit , characterised in that the curvature has an elliptical shape, wherein the feed is connected to a coaxial cable, and wherein the shape part has a trapezoidal part next to the curvature . - a ground-connecting part at one end, - a shape part distal from the ground-connecting part , wherein an outer edge of said shape part has a curvature , - a slit in between the curvature in the sheet metal starting at an outer edge and extending in a longitudinal direction of the antenna body, and - a feed located within the slit ,
Data processing method for determining at least one spatial coordinate of an audio source emitting an audio signal, in a three-dimensional space, the method comprising the following steps: - obtaining at least a first signal and a second signal from the audio signal captured in different pointing directions by a first sensor (51; 71) and a second sensor (52; 73) that is spatially offset from said first sensor; - deducing , from the first and second captured signals and from directivity functions associated with the first and with the second sensor, an expression of at least a first spatial coordinate of the audio source, said expression containing an uncertainty as to said spatial coordinate; - determining an additional item of information in relation to the first spatial coordinate of the audio source, from a comparison between respective phases or between respective acoustic intensity vector directions of the signals captured by the first and second sensors; - determining said first spatial coordinate of the audio source on the basis of the expression and of the additional item of information, the first spatial coordinate being a spherical coordinate of azimuth θ, the uncertainty being a sign uncertainty, wherein the first and second sensors are selected from among: cardioid microphones, bidirectional microphones, or sensors integrated into a 1 st -order or higher than 1 st -order ambisonic microphone. - obtaining at least a first signal and a second signal from the audio signal captured in different pointing directions by a first sensor (51; 71) and a second sensor (52; 73) that is spatially offset from said first sensor; - deducing , from the first and second captured signals and from directivity functions associated with the first and with the second sensor, an expression of at least a first spatial coordinate of the audio source, said expression containing an uncertainty as to said spatial coordinate; - determining an additional item of information in relation to the first spatial coordinate of the audio source, from a comparison between respective phases or between respective acoustic intensity vector directions of the signals captured by the first and second sensors; - determining said first spatial coordinate of the audio source on the basis of the expression and of the additional item of information, the first spatial coordinate being a spherical coordinate of azimuth θ, the uncertainty being a sign uncertainty, wherein the first and second sensors are selected from among: cardioid microphones, bidirectional microphones, or sensors integrated into a 1 st -order or higher than 1 st -order ambisonic microphone.