mhurhangee/patent-ind-claim-en huggingface dataset:
A cooking device comprising: a main body having a cooking space for cooking food; a base disposed at a lower side of the main body , and comprising a ventilation apparatus for suctioning and discharging contaminated air, the ventilation apparatus being connected to the lower side of the main body and including a flow guide having an introduction port , and a driving motor , and an installation part provided at the base , the driving motor being installed at the installation part , characterized in that the ventilation apparatus including a swirler configured to be rotated so that the contaminated air is suctioned through the introduction port of the base and wherein the driving motor is configured to generate power for rotating the swirler , the swirler having a rotary plate which has a hole through which air passes and a plurality of wings which are disposed along an edge of the rotary plate in a circumferential direction of the rotary plate and configured to push air in a radial direction, the flow guide comprising a recessed portion and a guide surface inclined downward and outward such that air being radially pushed by the plurality of wings flows downward so as to form a swirl under the flow guide ; the swirler being located inside a space formed by the recessed portion , and the swirler further includes a shaft coupling part which is connected to a shaft of the driving motor and is located lower than the rotary plate , and a connection rib which connects the shaft coupling part with the rotary plate , and a part of the driving motor passes through the hole of the rotary plate . a main body having a cooking space for cooking food; a base disposed at a lower side of the main body , and comprising a ventilation apparatus for suctioning and discharging contaminated air, the ventilation apparatus being connected to the lower side of the main body and including a flow guide having an introduction port , and a driving motor , and an installation part provided at the base , the driving motor being installed at the installation part , characterized in that the ventilation apparatus including a swirler configured to be rotated so that the contaminated air is suctioned through the introduction port of the base and wherein the driving motor is configured to generate power for rotating the swirler , the swirler having a rotary plate which has a hole through which air passes and a plurality of wings which are disposed along an edge of the rotary plate in a circumferential direction of the rotary plate and configured to push air in a radial direction, the flow guide comprising a recessed portion and a guide surface inclined downward and outward such that air being radially pushed by the plurality of wings flows downward so as to form a swirl under the flow guide ; the swirler being located inside a space formed by the recessed portion , and the swirler further includes a shaft coupling part which is connected to a shaft of the driving motor and is located lower than the rotary plate , and a connection rib which connects the shaft coupling part with the rotary plate , and a part of the driving motor passes through the hole of the rotary plate .
An ultrasound diagnostic apparatus comprising: an image acquisition unit that transmits an ultrasound beam from an ultrasound probe to a subject to generate an ultrasound image; an image recognition unit that performs image recognition for the ultrasound image generated by the image acquisition unit to calculate recognition scores of a plurality of parts of the subject; an index value calculation unit that calculates index values of the plurality of parts on the basis of the recognition scores of the plurality of parts calculated for a predetermined number of ultrasound images; a part narrowing-down unit that narrows down target parts for which part determination is to be performed, from the plurality of parts on the basis of the index values; and a part determination unit that determines an imaging part of the subject on the basis of the recognition scores calculated by the image recognition unit for the target parts narrowed down by the part narrowing-down unit . an image acquisition unit that transmits an ultrasound beam from an ultrasound probe to a subject to generate an ultrasound image; an image recognition unit that performs image recognition for the ultrasound image generated by the image acquisition unit to calculate recognition scores of a plurality of parts of the subject; an index value calculation unit that calculates index values of the plurality of parts on the basis of the recognition scores of the plurality of parts calculated for a predetermined number of ultrasound images; a part narrowing-down unit that narrows down target parts for which part determination is to be performed, from the plurality of parts on the basis of the index values; and a part determination unit that determines an imaging part of the subject on the basis of the recognition scores calculated by the image recognition unit for the target parts narrowed down by the part narrowing-down unit .
Adjustable damping valve device for a vibration damper, comprising a main stage valve which is controlled by a pilot stage valve , which pilot stage valve is actuatable by means of an electromagnetic actuator and has a pilot stage valve body , wherein a closing force generated by a spring arrangement of the actuator acts on an armature of the pilot stage valve body , wherein, in emergency operation, an emergency operation valve controls the main stage valve , characterized in that an emergency operation armature is preloaded by an emergency operation spring against the pilot stage valve body of the pilot stage valve , such that the pilot stage valve forms the emergency operation valve, wherein the spring arrangement and the emergency operation spring are connected functionally in parallel, and the emergency operation spring , as a compression spring, is supported on a component fixed with respect to a housing, wherein, in emergency operation, the closing force on the pilot stage valve body is determined collectively by the spring forces of the spring arrangement and of the emergency operation spring .
A computer-implemented method comprising: obtaining an image captured by a camera, the image comprising a real environment including a real object; determining a parameter value corresponding to an environmental parameter of the real environment, wherein the environmental parameter corresponds to a weather condition, a traffic condition, a time of day, an altitude of the camera above a reference point, a time of year, or a combination thereof; selecting a data model of the real object based on the parameter value; detecting the real object in the image based on a comparison of features extracted from the image to the data model; and determining an uncertainty value associated with detection of the real object in the image based on a distance between the parameter value and a model parameter value of the environmental parameter associated with the data model. obtaining an image captured by a camera, the image comprising a real environment including a real object; determining a parameter value corresponding to an environmental parameter of the real environment, wherein the environmental parameter corresponds to a weather condition, a traffic condition, a time of day, an altitude of the camera above a reference point, a time of year, or a combination thereof; selecting a data model of the real object based on the parameter value; detecting the real object in the image based on a comparison of features extracted from the image to the data model; and determining an uncertainty value associated with detection of the real object in the image based on a distance between the parameter value and a model parameter value of the environmental parameter associated with the data model.
Differential protection method for generating a fault signal, in which - current measurements are respectively measured at at least two different measuring points (M1, M2) of a multiphase transformer for each phase (A, B, C); - differential current values and stabilization values are formed with the current measurements for each phase (A, B, C); and - the fault signal is generated if it is determined during a trigger region check that a pair of measurements, created with the aid of one of the differential current values and the respectively associated stabilization value, of at least one of the phases (A, B, C) lies in a predefined trigger region ; characterized in that - the transformer has a grounded star point ; and - a zero system current flowing through the star point is used for the formation of the stabilization values, wherein a maximum value from the current measurements formed at the respective measuring points (M1, M2) and the zero system currents flowing on the respective sides of the transformer is used as the respective stabilization value. - current measurements are respectively measured at at least two different measuring points (M1, M2) of a multiphase transformer for each phase (A, B, C); - differential current values and stabilization values are formed with the current measurements for each phase (A, B, C); and - the fault signal is generated if it is determined during a trigger region check that a pair of measurements, created with the aid of one of the differential current values and the respectively associated stabilization value, of at least one of the phases (A, B, C) lies in a predefined trigger region ; characterized in that - the transformer has a grounded star point ; and - a zero system current flowing through the star point is used for the formation of the stabilization values, wherein a maximum value from the current measurements formed at the respective measuring points (M1, M2) and the zero system currents flowing on the respective sides of the transformer is used as the respective stabilization value.
A rocket propulsion system comprising a combustion chamber in which combustion is carried out and which is connected by a neck to a divergent portion , and in which hot gas streams (GC) flow according to a longitudinal axis (AA) of the combustion chamber , the combustion chamber comprising an inner wall and an outer wall (1") defining a cavity inside which flows a heat-transfer fluid for cooling the combustion chamber ; a plurality of flow vortex generators located on the inner wall inside of the combustion chamber body and configured so that the hot gas streams flow in a swirling manner according to the longitudinal axis (AA) along the inner wall in order to increase the heat transfers between the hot gas streams and the inner wall of the combustion chamber . a combustion chamber in which combustion is carried out and which is connected by a neck to a divergent portion , and in which hot gas streams (GC) flow according to a longitudinal axis (AA) of the combustion chamber , the combustion chamber comprising an inner wall and an outer wall (1") defining a cavity inside which flows a heat-transfer fluid for cooling the combustion chamber ; a plurality of flow vortex generators located on the inner wall inside of the combustion chamber body and configured so that the hot gas streams flow in a swirling manner according to the longitudinal axis (AA) along the inner wall in order to increase the heat transfers between the hot gas streams and the inner wall of the combustion chamber .
Stopper for a container for use in freeze drying, the stopper having an insertion section that can be inserted into the container , the insertion section having a side surface and a bottom surface , the bottom surface being formed opposite a top surface of the stopper in an axial direction (Z) of the stopper and the insertion section having a sealing section and a contact section , the contact section having a passage opening for a gas exchange, the passage opening extending from the side surface into the bottom surface , and the stopper having a sealing body and a base body , which are connected to each other, the base body consisting of a material which has a higher hardness than a material of which the sealing body consists, characterized in that outer surfaces of the sealing body form the side surface and the bottom surface of the insertion section , the base body in the region of the insertion section is formed within the sealing body , the stopper having a covering section adjoining the insertion section in the axial direction (Z), the covering section having the sealing surface and a radial dimension of the covering section being at least as large as a radial dimension of the insertion section , the base body in the region of the covering section having a projection formed radially on the outside, extending from the top surface in the direction of the bottom surface , the projection at least partially covering the sealing body radially on the outside in the region of the covering section .
A catheter assembly comprising: a contact sensing assembly comprising a catheter including a body having a proximal end and a distal end and housing an optical sensor ; an electrode including a tip portion , an electrode cavity , and a base portion ; wherein the distal end of the catheter includes a coupling member comprising a neck portion and a mounting shaft , , wherein the neck portion comprises an elastic portion , wherein the base portion of the electrode is configured to be received by the neck portion , wherein a distal end of the optical sensor is configured to be coupled to the coupling member and positioned proximal of the elastic portion and proximal of the base portion of the electrode , the electrode includes an optically interactive surface that is provided on a portion of the electrode that interacts with the optical sensor , wherein the elastic portion is adapted to move relative to an external force exerted on the electrode such that at least a portion of distal end of catheter flexes and/or bends relative to electrode , wherein the optical sensor includes an emitter and a receiver . a contact sensing assembly comprising a catheter including a body having a proximal end and a distal end and housing an optical sensor ; an electrode including a tip portion , an electrode cavity , and a base portion ; wherein the distal end of the catheter includes a catheter including a body having a proximal end and a distal end and housing an optical sensor ; an electrode including a tip portion , an electrode cavity , and a base portion ; wherein the distal end of the catheter includes a coupling member comprising a neck portion and a mounting shaft , , wherein the neck portion comprises an elastic portion , wherein the base portion of the electrode is configured to be received by the neck portion , wherein a distal end of the optical sensor is configured to be coupled to the coupling member and positioned proximal of the elastic portion and proximal of the base portion of the electrode , the electrode includes an optically interactive surface that is provided on a portion of the electrode that interacts with the optical sensor , wherein the elastic portion is adapted to move relative to an external force exerted on the electrode such that at least a portion of distal end of catheter flexes and/or bends relative to electrode , wherein the optical sensor includes an emitter and a receiver .
A Serial Peripheral Interface, SPI, master for transferring data to a peripheral device (PD1, PD2, PD3) in a data communication and processing system , the SPI master comprises: a memory comprising a list of packets, each packet comprises data associated with a time parameter indicating at which time the data is to be transferred to the peripheral device, wherein the time parameter is configurable; and a serial transmit and receive unit to transfer the data in the list at a time according to the time parameter associated with the data. a memory comprising a list of packets, each packet comprises data associated with a time parameter indicating at which time the data is to be transferred to the peripheral device, wherein the time parameter is configurable; and a serial transmit and receive unit to transfer the data in the list at a time according to the time parameter associated with the data.
An electric compressor for a heat ventilation air conditioning system for vehicles, said electric compressor comprising a motor portion and a centrifugal compressor portion driven by said motor portion through a shaft , wherein it further comprises electromagnetic means for levitating said shaft during functional operation of said electric compressor and auxiliary landing bearings , characterized in that said motor portion comprises an axial bearingless motor and said electromagnetic means for levitating said shaft comprise first and second radial bearingless motors .
A compression ratio control device , comprising: a detector configured to detect a signal correlating with the maximum combustion pressure (Pmax) in a combustion chamber in a cylinder ; and a controller configured to control a compression ratio of the combustion chamber , wherein the controller controls the compression ratio to be closer to a lowest compression ratio (ε0) at an engine full load, characterized in that the controller changes the compression ratio, in a first engine load region (R1) including the engine full load, in a range between the lowest compression ratio (ε0) and a highest compression ratio (εn) so that the maximum combustion pressure (Pmax) is maintained to a cylinder internal-pressure upper limit value (Pmax Limit) defined from the view point of durability of the cylinder , and the controller maintains the compression ratio to be closer to the highest compression ratio (εn), in a second engine load region (R2) in which the engine load is smaller than that in the first engine load region (R1) and the maximum combustion pressure (Pmax) is less than the cylinder-internal-pressure upper limit value (Pmax Limit). a detector configured to detect a signal correlating with the maximum combustion pressure (Pmax) in a combustion chamber in a cylinder ; and a controller configured to control a compression ratio of the combustion chamber , wherein the controller controls the compression ratio to be closer to a lowest compression ratio (ε0) at an engine full load, characterized in that the controller changes the compression ratio, in a first engine load region (R1) including the engine full load, in a range between the lowest compression ratio (ε0) and a highest compression ratio (εn) so that the maximum combustion pressure (Pmax) is maintained to a cylinder internal-pressure upper limit value (Pmax Limit) defined from the view point of durability of the cylinder , and the controller maintains the compression ratio to be closer to the highest compression ratio (εn), in a second engine load region (R2) in which the engine load is smaller than that in the first engine load region (R1) and the maximum combustion pressure (Pmax) is less than the cylinder-internal-pressure upper limit value (Pmax Limit).
A method of reconstructing one or more audio signals, the method comprising: generating , using a neural network, a residual signal for at least one sample of an audio signal based on one or more inputs to the neural network, the one or more inputs including a combination of a long-term linear prediction, LTP, generated by a long-term prediction filter for at least one sample of an audio signal, a linear prediction, LP, for the at least one sample of the audio signal, and at least one previous sample of a reconstructed audio signal, and the residual signal being configured to excite at least one of the long-term prediction filter and a short-term prediction filter; and determining , using at least the long-term prediction filter, at least one sample of the reconstructed audio signal, the at least one sample of the reconstructed audio signal being determined based on the residual signal generated using the neural network for the at least one sample of the audio signal. generating , using a neural network, a residual signal for at least one sample of an audio signal based on one or more inputs to the neural network, the one or more inputs including a combination of a long-term linear prediction, LTP, generated by a long-term prediction filter for at least one sample of an audio signal, a linear prediction, LP, for the at least one sample of the audio signal, and at least one previous sample of a reconstructed audio signal, and the residual signal being configured to excite at least one of the long-term prediction filter and a short-term prediction filter; and determining , using at least the long-term prediction filter, at least one sample of the reconstructed audio signal, the at least one sample of the reconstructed audio signal being determined based on the residual signal generated using the neural network for the at least one sample of the audio signal.
Modular element (1, 1', 1") for the manufacturing of an arm or of an arm segment of a spray bar provided with spray nozzles , comprising at least: - a first profile determining a longitudinal housing open downwards and at each of its longitudinal ends, the first profile and the housing being configured to entirely receive the spray nozzles and pipings connecting them to each other, - a reinforcement disposed above the first profile in such a way that the respective longitudinal axes of the reinforcement and of the first profile belong to the vertical plane P of longitudinal symmetry of said modular element (1, 1', 1"), - a plurality of stiffeners longitudinally connecting at least the first profile and the reinforcement to each other, the modular element (1, 1', 1") characterized in that it comprises - two plates (8, 9, 8', 9', 8", 9") each disposed at one of the longitudinal ends of said first profile and laterally connecting at least the longitudinal ends of the first profile and of the reinforcement to each other. - a first profile determining a longitudinal housing open downwards and at each of its longitudinal ends, the first profile and the housing being configured to entirely receive the spray nozzles and pipings connecting them to each other, - a reinforcement disposed above the first profile in such a way that the respective longitudinal axes of the reinforcement and of the first profile belong to the vertical plane P of longitudinal symmetry of said modular element (1, 1', 1"), - a plurality of stiffeners longitudinally connecting at least the first profile and the reinforcement to each other, the modular element (1, 1', 1") characterized in that it comprises - two plates (8, 9, 8', 9', 8", 9") each disposed at one of the longitudinal ends of said first profile and laterally connecting at least the longitudinal ends of the first profile and of the reinforcement to each other.
A suction device, comprising a shell , wherein the shell is provided with a chamber , the chamber is provided with an opening , a fan is disposed in the chamber, the opening is disposed in a rotating axial direction of the fan, a power component for driving the fan to rotate is disposed on the shell, an fluid source is disposed, another fluid (B) is disposed in the fluid source, the other fluid is different from an original fluid (A) originally present in the chamber, the fluid source is connected to the chamber, the other fluid of the fluid source flows into the chamber to occupy the volume in the chamber, and partially or completely squeezes the original fluid originally present in the chamber out of the chamber, and the fan drives fluids in the chamber to rotate, characterized in that the shell is further provided with a suction hole , one end of the suction hole is connected to a region of the chamber where the other fluid is not present, and the other end of the suction hole is connected to a vacuum source .