mhurhangee/patent-ind-claim-en huggingface dataset:
An ischemic cardiopathy diagnosis assistance system configured to measure intracoronary pressure in a proximal stenotic segment (A1) upstream of a stenotic lesion site (B) in a coronary artery (A) of a patient and intracoronary pressure in a distal stenotic segment (A2) on a downstream side and to find a pressure ratio between the proximal stenotic segment (A1) and distal stenotic segment (A2) as a diagnosis index of ischemic cardiopathy, the assistance system comprising : pressure data acquisition means for acquiring pressure data including proximal pressure, which is pressure in the proximal stenotic segment (A1), and distal pressure, which is pressure in the distal stenotic segment (A2); intracoronary electrocardiogram data acquisition means for acquiring intracoronary electrocardiogram data made up of a local intracoronary artery electrocardiogram in a neighborhood of the distal stenotic segment (A2); and computational processing means for finding the pressure ratio based on the data acquired by the pressure data acquisition means and the data acquired by the intracoronary electrocardiogram data acquisition means , wherein the computational processing means includes a pressure data extraction unit configured to temporally associate the pressure data with the intracoronary electrocardiogram data, estimates an analysis period during which vascular resistance remains stably low from a waveform of the intracoronary electrocardiogram data, and extract the pressure data of the analysis period, and a pressure ratio determination unit configured to find the pressure ratio from the pressure data extracted by the pressure data extraction unit . pressure data acquisition means for acquiring pressure data including proximal pressure, which is pressure in the proximal stenotic segment (A1), and distal pressure, which is pressure in the distal stenotic segment (A2); intracoronary electrocardiogram data acquisition means for acquiring intracoronary electrocardiogram data made up of a local intracoronary artery electrocardiogram in a neighborhood of the distal stenotic segment (A2); and computational processing means for finding the pressure ratio based on the data acquired by the pressure data acquisition means and the data acquired by the intracoronary electrocardiogram data acquisition means , wherein the computational processing means includes a pressure data extraction unit configured to temporally associate the pressure data with the intracoronary electrocardiogram data, estimates an analysis period during which vascular resistance remains stably low from a waveform of the intracoronary electrocardiogram data, and extract the pressure data of the analysis period,
A head wearable apparatus comprising: an optical engine configured to provide one or more light beams; a camera ; and a waveguide configured to guide the one or more light beams wherein the waveguide comprises a diffractive in-coupling grating , and at least one diffractive out-coupling grating ; wherein the at least one diffractive out-coupling grating is configured to out-couple, during use when the apparatus is worn by a user, the one or more light beams towards an eye of the user and towards the camera; wherein the waveguide is at least partially transparent and configured such that, during use when the apparatus is worn by the user, the user is able to see an ambient physical environment and the one or more light beams out-coupled towards the camera; wherein the camera is configured to detect, during use of the apparatus when worn by a user, the ambient physical environment and the one or more light beams out-coupled towards the camera; and wherein the head wearable apparatus is configured to adjust the one or more light beams provided by the optical engine based on the ambient physical environment and the one or more light beams detected by the camera. an optical engine configured to provide one or more light beams; a camera ; and a waveguide configured to guide the one or more light beams wherein the waveguide comprises a diffractive in-coupling grating , and at least one diffractive out-coupling grating ; wherein the at least one diffractive out-coupling grating is configured to out-couple, during use when the apparatus is worn by a user, the one or more light beams towards an eye of the user and towards the camera; wherein the waveguide is at least partially transparent and configured such that, during use when the apparatus is worn by the user, the user is able to see an ambient physical environment and the one or more light beams out-coupled towards the camera; wherein the camera is configured to detect, during use of the apparatus when worn by a user, the ambient physical environment and the one or more light beams out-coupled towards the camera; and wherein the head wearable apparatus is configured to adjust the one or more light beams provided by the optical engine based on the ambient physical environment and the one or more light beams detected by the camera.
Method for operating a starter of a vehicle, wherein a physical variable is measured, wherein a starter current of the starter is limited by means of a resistor depending on the measured physical variable, wherein, in the event of the starter current being limited, the limiting is ended by a timer after a predetermined time by way of a transistor that is connected electrically in parallel with the resistor bridging the resistor , wherein the timer is activated when the starter current reaches a threshold I T , characterized in that , after the limiting is ended, a switch is made to the limiting mode depending on whether the starter current I S has fallen below the threshold I T .
A data processing apparatus comprising: storage circuitry adapted to store an entry; input circuitry to receive at least one input to generate an access request to the entry, wherein the at least one input comprises a plurality of bits; and coding circuitry to perform an encoding operation to encode at least some of the plurality of bits based on a value associated with a current execution environment, wherein the current execution environment changes between a plurality of execution environments in which a plurality of instructions execute; and the encoding operation comprises encoding the at least some of the bits by using a key, wherein the key is based on the current execution environment. storage circuitry adapted to store an entry; input circuitry to receive at least one input to generate an access request to the entry, wherein the at least one input comprises a plurality of bits; and coding circuitry to perform an encoding operation to encode at least some of the plurality of bits based on a value associated with a current execution environment, wherein the current execution environment changes between a plurality of execution environments in which a plurality of instructions execute; and the encoding operation comprises encoding the at least some of the bits by using a key, wherein the key is based on the current execution environment.
An electrostatic rotary sprayer for coating product, this sprayer comprising: - a spraying cup ; - a body ; - a drive turbine assembled in the body and configured to rotate the spraying cup about an axis of rotation (A100) defined by the body; - electrodes for charging the coating product sprayed by the spraying cup, these electrodes being assembled on a ring attached on the body; - a skirt for discharging air around the cup; and wherein an annular slit , supplied by a pressurized air flow circuit (F3) with pressurized air, is defined radially between the ring and the skirt , with its outlet oriented toward the front of the sprayer and the pressurized air flow circuit (F3) toward the annular slit comprises at least one chamber (V102, 224, 226) defined between the body and the skirt or between the ring and the skirt, and characterized in that the chamber (V102) forms a baffle around a rear rim of the skirt . - a spraying cup ; - a body ; - a drive turbine assembled in the body and configured to rotate the spraying cup about an axis of rotation (A100) defined by the body; - electrodes for charging the coating product sprayed by the spraying cup, these electrodes being assembled on a ring attached on the body; - a skirt for discharging air around the cup; and wherein an annular slit , supplied by a pressurized air flow circuit (F3) with pressurized air, is defined radially between the ring and the skirt , with its outlet oriented toward the front of the sprayer and the pressurized air flow circuit (F3) toward the annular slit comprises at least one chamber (V102, 224, 226) defined between the body and the skirt or between the ring and the skirt, and characterized in that the chamber (V102) forms a baffle around a rear rim of the skirt .
A position indicator , comprising: a light emitting element ; a resonance circuit including a coil for transmitting and receiving a signal to and from a sensor of a position detection apparatus and a first capacitor connected in parallel to the coil ; and a signal generation circuit including a second capacitor that is different from the first capacitor , wherein the second capacitor is configured to accumulate power of a signal received from the sensor by the resonance circuit , wherein the signal generation circuit further includes a third capacitor and a first and second diode for rectification, the coil configuring the resonance circuit is connected at one end thereof to the cathode of the first diode through the third capacitor , and the first diode is connected at the anode thereof to the other end of the coil , further, the connection point between the third capacitor and the cathode of the first diode is connected to the anode of the second diode , and the second diode is connected at the cathode thereof to the other end of the coil through the second capacitor , and wherein the signal generation circuit is configured to generate a light emission driving controlling signal for driving and controlling the light emitting element to emit light based on the accumulated power by the second capacitor ; wherein the light emitting element is driven and controlled by the light emission driving controlling signal generated by the signal generation circuit to perform light emission control of the light emitting element by the position detection apparatus. a light emitting element ; a resonance circuit including a coil for transmitting and receiving a signal to and from a sensor of a position detection apparatus and a first capacitor connected in parallel to the coil ; and a signal generation circuit including a second capacitor that is different from the first capacitor , wherein the second capacitor is configured to accumulate power of a signal received from the sensor by the resonance circuit , wherein the signal generation circuit further includes a third capacitor and a first and second diode for rectification, the coil configuring the resonance circuit is connected at one end thereof to the cathode of the first diode through the third capacitor , and the first diode is connected at the anode thereof to the other end of the coil , further, the connection point between the third capacitor and the cathode of the first diode is connected to the anode of the second diode , and the second diode is connected at the cathode thereof to the other end of the coil through the second capacitor , and wherein the signal generation circuit is configured to generate a light emission driving controlling signal for driving and controlling the light emitting element to emit light based on the accumulated power by the second capacitor ; wherein the light emitting element is driven and controlled by the light emission driving controlling signal generated by the signal generation circuit to perform light emission control of the light emitting element by the position detection apparatus.
Apparatus for processing logs , which apparatus comprises - conveying means for conveying a log in the apparatus , - a chipping canter , which comprises two chipping head assemblies for chipping the opposite sides of a log , and - a sawing unit , which comprises at least two circular blades for sawing the log on at least one side, which circular blades of the sawing unit are situated before the chipping canter in the conveying direction of a log , - and in which apparatus the chipping head assemblies are installed on different shafts than the circular blades , and the circular blades are situated at the same point in the width direction of the log as the inner ends of the chipping head assemblies , i.e. the ends facing the center part of the log , characterized in that the circular blades of the sawing unit are arranged to, before chipping, partly saw off from the log the parts of the log that are to be chipped with the chipping head assemblies , and that the chipping head assemblies are provided with head saw blades for, before chipping, sawing off the parts to be chipped from the log . - conveying means for conveying a log in the apparatus , - a chipping canter , which comprises two chipping head assemblies for chipping the opposite sides of a log , and - a sawing unit , which comprises at least two circular blades for sawing the log on at least one side, which circular blades of the sawing unit are situated before the chipping canter in the conveying direction of a log , - and in which apparatus the chipping head assemblies are installed on different shafts than the circular blades , and the circular blades are situated at the same point in the width direction of the log as the inner ends of the chipping head assemblies , i.e. the ends facing the center part of the log ,
An electronic apparatus configured to execute an application to perform a function using personal information, the apparatus comprising: a storage configured to store the personal information, and information related to protection of the personal information which is set for the application; and a processor configured to: in response to receiving a request for the personal information from the application, determine whether to protect the personal information based on the set information, encrypt the personal information and provide the encrypted personal information to the application based on the determination result, the apparatus characterized in that : the processor is configured to, in response to receiving an execution request with respect to a function related to encrypted personal information from the application, obtain the personal information by decrypting the encrypted personal information and execute the function based on the personal information. a storage configured to store the personal information, and information related to protection of the personal information which is set for the application; and a processor configured to: in response to receiving a request for the personal information from the application, determine whether to protect the personal information based on the set information, encrypt the personal information and provide the encrypted personal information to the application based on the determination result, in response to receiving a request for the personal information from the application, determine whether to protect the personal information based on the set information, encrypt the personal information and provide the encrypted personal information to the application based on the determination result, the apparatus characterized in that : the processor is configured to, in response to receiving an execution request with respect to a function related to encrypted personal information from the application, obtain the personal information by decrypting the encrypted personal information and execute the function based on the personal information.
A convertiplane structure having a longitudinal axis x and a plane π orthogonal to it, said structure comprising: - a main wing arranged to rotate about at least one transversal rotation axis y; - an auxiliary wing , which is located back with respect to said main wing , and arranged to rotate about at least one transversal rotation axis y' ; - at least two main propellers located on said main wing ; - at least two auxiliary propellers located on said auxiliary wing ; characterized in that said auxiliary wing is located at a vertical height bigger than said main wing , and in that two vertical wings are also provided located in such a way that the projections on said plane π of said main wing , of said auxiliary wing and of said vertical wings shape a closed polygon, thus reducing the induced drag and increasing the overall aerodynamic efficiency. - a main wing arranged to rotate about at least one transversal rotation axis y; - an auxiliary wing , which is located back with respect to said main wing , and arranged to rotate about at least one transversal rotation axis y' ; - at least two main propellers located on said main wing ; - at least two auxiliary propellers located on said auxiliary wing ;
A fan blade comprising: a fan blade body formed from a composite material, the composite material including a three dimensional preform , the three dimensional preform including: a plurality of warp fibres disposed in a warp direction in a first plane ; a plurality of filling fibres disposed in a fill direction , wherein the fill direction is perpendicular to the warp direction in the first plane; a plurality of z-yarn fibres disposed in a z-yarn direction , wherein the z-yarn direction intersects the warp direction through the first plane; and a plurality of bias fibres disposed in a bias direction, wherein the bias direction is not aligned with the warp direction and the fill direction and the bias direction is disposed in the first plane. a plurality of warp fibres disposed in a warp direction in a first plane ; a plurality of filling fibres disposed in a fill direction , wherein the fill direction is perpendicular to the warp direction in the first plane; a plurality of z-yarn fibres disposed in a z-yarn direction , wherein the z-yarn direction intersects the warp direction through the first plane; and a plurality of bias fibres disposed in a bias direction, wherein the bias direction is not aligned with the warp direction and the fill direction and the bias direction is disposed in the first plane.
A method for printing calibration markers in a scanning inkjet printer, the inkjet printer comprising a pinning lamp suitable for applying ultraviolet, UV, light to a UV light-curable ink, the method comprising: printing a contrast plane on the recording medium with UV light-curable ink of a first color; at least partially curing the contrast plane printed on the recording medium by applying ultraviolet, UV, light to the contrast plane with the pinning lamp ; printing a calibration marker with UV light-curable ink of a second color onto the printed contrast plane such that the printed contrast plane forms a uniform background for the printed calibration marker , wherein the first color and the second color have a contrast ratio higher than 1, wherein the contrast ratio is the ratio of the luminance of the brightest color to that of the darkest color. printing a contrast plane on the recording medium with UV light-curable ink of a first color; at least partially curing the contrast plane printed on the recording medium by applying ultraviolet, UV, light to the contrast plane with the pinning lamp ; printing a calibration marker with UV light-curable ink of a second color onto the printed contrast plane such that the printed contrast plane forms a uniform background for the printed calibration marker , wherein the first color and the second color have a contrast ratio higher than 1, wherein the contrast ratio is the ratio of the luminance of the brightest color to that of the darkest color.
An implantable medical device , comprising: - a control circuitry ; and - a communication circuitry for communicating with another implantable medical device , the communication circuitry comprising a transmission unit and a reception unit ; wherein the transmission unit , for establishing a communication link (L) with the other implantable medical device , is configured to transmit a multiplicity of transmit communication signals (S1-S5), wherein each transmit communication signal (S1-S5) is associated with a dedicated sub-range (A1-A5) of a predefined frequency range, and wherein the transmission unit is configured to sequentially transmit, for establishing a communication link (L), transmit communication signals (S1-S5) starting at a sub-range (A1) at a first end of the frequency range, and ending at a sub-range (A5) at a second end of the frequency range opposite the first end, wherein the reception unit is configured to receive a response communication signal (R2-R4) in response to a transmit communication signal (S1-S5); and wherein the control circuitry is configured to determine whether a response communication signal (R2-R4) in response to a transmit communication signal (S1-S5) associated with a dedicated sub-range (A1-A5) has been received, and to establish said communication link (L) based on said determination. - a control circuitry ; and - a communication circuitry for communicating with another implantable medical device , the communication circuitry comprising a transmission unit and a reception unit ; wherein the transmission unit , for establishing a communication link (L) with the other implantable medical device , is configured to transmit a multiplicity of transmit communication signals (S1-S5), wherein each transmit communication signal (S1-S5) is associated with a dedicated sub-range (A1-A5) of a predefined frequency range, and wherein the transmission unit is configured to sequentially transmit, for establishing a communication link (L), transmit communication signals (S1-S5) starting at a sub-range (A1) at a first end of the frequency range, and ending at a sub-range (A5) at a second end of the frequency range opposite the first end, wherein the reception unit is configured to receive a response communication signal (R2-R4) in response to a transmit communication signal (S1-S5); and wherein the control circuitry is configured to determine whether a response communication signal (R2-R4) in response to a transmit communication signal (S1-S5) associated with a dedicated sub-range (A1-A5) has been received, and to establish said communication link (L) based on said determination.
a mill for grinding of materials of different hardness and grain size comprising drives and a body equipped with a hopper and a the discharging hopper , in which a main grinding roller driven by a main drive , which is equipped with a replaceable abrasion-resistant tire and from both sides fitted with guide rings along the circumference, overlapping its diameter in a manner to prevent ground stock leakage from a grinding slot, whereas in addition at least three smaller grinding runners are incorporated in the body of the mill, in a rotating and sliding manner, whose axes are in parallel to the axis of said main grinding roller , and arranged in the direction of its rotation along its circumference between the hopper and the discharging hopper , whereas all grinding runners are equipped with devices providing their thrust to the main grinding roller and the first grinding runner is equipped with its own drive by means of extended ends of its shaft , protruding from bearing houses , accommodating the driven shaft in antifriction bearings , characterized in that, the bearing houses of the grinding runners are fitted with guide grooves , arranged in a manner to fit into guides in sidewalls of the body of the mill, whereas guide grooves are fitted with lubrication channels and lined along their circumference with sliding plates with lubrication grooves , whereas the bearing houses of the first grinding runner are coupled by a crossbeam , to which is leaned a push rod of a compression device via axial ball bearings .