mhurhangee/patent-ind-claim-en huggingface dataset:
A hood locking device , comprising a locking mechanism , wherein the locking mechanism includes two latches , the two latches are configured to fix an engine hood at a closed position by latching a striker included with the engine hood of a vehicle and unfix the engine hood by releasing the striker , one of the two latches includes one of a projection and a recess and the other one of the two latches includes the other one of the projection and the recess , wherein the projection and the recess form a fitting portion and the projection is fitted to the recess , the two latches are pivotally supported by a base plate fixed to the vehicle and configured such that latching directions of the two latches for the striker are opposite to each other, characterized in that one of the two latches includes a right-hand-drive operation cable attachment portion and the other one of the two latches includes a left-hand-drive operation cable attachment portion . the locking mechanism includes two latches , the two latches are configured to fix an engine hood at a closed position by latching a striker included with the engine hood of a vehicle and unfix the engine hood by releasing the striker , one of the two latches includes one of a projection and a recess and the other one of the two latches includes the other one of the projection and the recess , wherein the projection and the recess form a fitting portion and the projection is fitted to the recess , the two latches are pivotally supported by a base plate fixed to the vehicle and configured such that latching directions of the two latches for the striker are opposite to each other, characterized in that one of the two latches includes a right-hand-drive operation cable attachment portion and the other one of the two latches includes a left-hand-drive operation cable attachment portion .
Projection apparatus comprising at least: - a device for generating an illuminating light beam with a determined main direction , - a means for scattering the light from the illuminating light beam generated by the generation device into a scattered light beam, and - a planar imaging screen comprising two opposing faces, an input face receiving the scattered light beam and an opposing output face producing a display light beam with a determined main direction , the light scattering means consisting of a planar diffuser arranged between the output of the generation device and the imaging screen , characterized in that : - the diffuser is parallel to the imaging screen , in that - the diffuser and the imaging screen are inclined with respect to the main direction of the illuminating light beam generated by the generation device , and in that - the diffuser has an optical scattering indicatrix having a maximum for a direction aligned with the main direction of the illuminating light beam generated by the generation device . - a device for generating an illuminating light beam with a determined main direction , - a means for scattering the light from the illuminating light beam generated by the generation device into a scattered light beam, and - a planar imaging screen comprising two opposing faces, an input face receiving the scattered light beam and an opposing output face producing a display light beam with a determined main direction , - the diffuser is parallel to the imaging screen , in that - the diffuser and the imaging screen are inclined with respect to the main direction of the illuminating light beam generated by the generation device , and in that - the diffuser has an optical scattering indicatrix having a maximum for a direction aligned with the main direction of the illuminating light beam generated by the generation device .
A passive keyless entry system including an in-vehicle apparatus installable on a vehicle and a portable apparatus , the in-vehicle apparatus including: a plurality of antennas for generating a plurality of respective magnetic fields (H1, H2, H3), an in-vehicle receiver for communicating with a portable transmitter of the portable apparatus , an in-vehicle control unit for controlling the plurality of antennas and for generating an authorization signal based on information received from the portable apparatus , the portable apparatus including: a receiving antenna having three mutually orthogonal coils (141x, 141y and 141z), a portable transmitter for communicating with the in-vehicle receiver, a portable control unit for controlling the receiving antenna and the portable transmitter, the portable apparatus being configured for measuring the absolute values only of the 3-D components of at least two of the magnetic fields (H1, H2, H3) to define at least two respective projection vectors (m1, m2, m3) of the magnetic fields (H1, H2, H3) into the positive octant of an R 3 space, the in-vehicle control unit or the portable control unit being configured for computing at least one computed angle (α m , α m13 , α m23 ) between the two projection vectors (m1, m2, m3) of the magnetic fields (H1, H2, H3), the in-vehicle control unit or the portable control unit being configured for comparing the at least one computed angle (α m , α m13 , α m23 ) with an angular threshold value (α t ), the in-vehicle control unit being configured for preventing the authorization signal when all the computed angles (α m , α m13 , α m23 ) are lower than the angular threshold value (α t ). a plurality of antennas for generating a plurality of respective magnetic fields (H1, H2, H3), an in-vehicle receiver for communicating with a portable transmitter of the portable apparatus , an in-vehicle control unit for controlling the plurality of antennas and for generating an authorization signal based on information received from the portable apparatus , a receiving antenna having three mutually orthogonal coils (141x, 141y and 141z), a portable transmitter for communicating with the in-vehicle receiver, a portable control unit for controlling the receiving antenna and the portable transmitter, the portable apparatus being configured for measuring the absolute values only of the 3-D components of at least two of the magnetic fields (H1, H2, H3) to define at least two respective projection vectors (m1, m2, m3) of the magnetic fields (H1, H2, H3) into the positive octant of an R 3 space, the in-vehicle control unit or the portable control unit being configured for computing at least one computed angle (α m , α m13 , α m23 ) between the two projection vectors (m1, m2, m3) of the magnetic fields (H1, H2, H3), the in-vehicle control unit or the portable control unit being configured for comparing the at least one computed angle (α m , α m13 , α m23 ) with an angular threshold value (α t ), the in-vehicle control unit being configured for preventing the authorization signal when all the computed angles (α m , α m13 , α m23 ) are lower than the angular threshold value (α t ).
A processing unit for assessing the severity of a stenosis in a vessel without administration of hyperemic agent, wherein the processing unit is connectable to at least one instrument sized and shaped for introduction into the vessel of a patient, the processing unit further configured to: obtain proximal pressure measurements for at least one cardiac cycle of the patient from the at least one instrument, the proximal pressure measurements obtained at a position proximal of the stenosis of the vessel; obtain distal pressure measurements for the at least one cardiac cycle of the patient from the at least one instrument, the distal pressure measurements obtained at a position distal of the stenosis of the vessel; define a duration of a diagnostic window within the cardiac cycle of the patient by selecting a starting point and an end point , wherein the starting point is selected based on the start of the cardiac cycle and addition of a first predetermined amount of time , the start of the cardiac cycle is determined from either the proximal pressure measurements or the distal pressure measurements, wherein the duration of the diagnostic window corresponds to a time period in which change in velocity is less than 25% of the maximum change in velocity during the cardiac cycle; and calculate a pressure ratio between the distal pressure measurements and the proximal pressure measurements obtained during the diagnostic window. obtain proximal pressure measurements for at least one cardiac cycle of the patient from the at least one instrument, the proximal pressure measurements obtained at a position proximal of the stenosis of the vessel; obtain distal pressure measurements for the at least one cardiac cycle of the patient from the at least one instrument, the distal pressure measurements obtained at a position distal of the stenosis of the vessel; define a duration of a diagnostic window within the cardiac cycle of the patient by selecting a starting point and an end point , wherein the starting point is selected based on the start of the cardiac cycle and addition of a first predetermined amount of time , the start of the cardiac cycle is determined from either the proximal pressure measurements or the distal pressure measurements, wherein the duration of the diagnostic window corresponds to a time period in which change in velocity is less than 25% of the maximum change in velocity during the cardiac cycle; and calculate a pressure ratio between the distal pressure measurements and the proximal pressure measurements obtained during the diagnostic window.
A computer-implemented method of classifying an input image, the method comprising: segmenting the input image into a region of interest that includes information useful for classification and a background region by applying a first convolutional neural network; tiling the region of interest into a set of tiles; for each tile, extracting a feature vector of that tile by applying a second convolutional neural network, wherein the features of the feature vectors represent local descriptors of the tile and a score, which is obtained by reduction of the feature vector using the network, is associated with each tile in the set of tiles, the score representing a contribution of that tile to the classification of the input image, and processing the extracted feature vectors of the set of tiles to classify the input image based on a first subset of the set of tiles having highest scores and a second subset of the set of tiles having lowest scores, said subsets being obtained by sorting the scores. segmenting the input image into a region of interest that includes information useful for classification and a background region by applying a first convolutional neural network; tiling the region of interest into a set of tiles; for each tile, extracting a feature vector of that tile by applying a second convolutional neural network, wherein the features of the feature vectors represent local descriptors of the tile and a score, which is obtained by reduction of the feature vector using the network, is associated with each tile in the set of tiles, the score representing a contribution of that tile to the classification of the input image, and processing the extracted feature vectors of the set of tiles to classify the input image based on a first subset of the set of tiles having highest scores and a second subset of the set of tiles having lowest scores, said subsets being obtained by sorting the scores.
An insert for connecting a wind turbine blade to a rotor hub of a wind turbine , comprising: a bushing comprising: a main body having a first end , a second end , a central bore open to the first end and extending toward the second end , an inner surface , and an outer surface ; and characterised by : a plurality of elongate ribs each extending from at least one of the inner and outer surfaces of the main body and further extending along at least a portion of a length of the main body , wherein the plurality of ribs on the main body defines a plurality of channels , each channel formed by a section of the at least one of the inner and outer surfaces of the main body and an adjacent pair of the plurality of ribs ; and a plurality of composite inlays , each composite inlay positioned within a respective one of the plurality of channels of the bushing . a bushing comprising: a main body having a first end , a second end , a central bore open to the first end and extending toward the second end , an inner surface , and an outer surface ; and characterised by : a plurality of elongate ribs each extending from at least one of the inner and outer surfaces of the main body and further extending along at least a portion of a length of the main body , wherein the plurality of ribs on the main body defines a plurality of channels , each channel formed by a section of the at least one of the inner and outer surfaces of the main body and an adjacent pair of the plurality of ribs ; and a plurality of elongate ribs each extending from at least one of the inner and outer surfaces of the main body and further extending along at least a portion of a length of the main body , wherein the plurality of ribs on the main body defines a plurality of channels , each channel formed by a section of the at least one of the inner and outer surfaces of the main body and an adjacent pair of the plurality of ribs ; and a plurality of composite inlays , each composite inlay positioned within a respective one of the plurality of channels of the bushing .
A lock, comprising a locking module and a driving module, wherein the locking module comprises a latch mounted on a first base on a first main body, an oblique pin ring gear mounted on a second base on a second main body and adapted to the latch ; the radial thickness of the oblique pin ring gear changes continuously; a first slot is arranged on the latch , and wherein the driving module is used for driving the oblique pin ring gear to move in a circular motion, such that the oblique pin ring gear clips to or separates from the first slot of the latch that is in a closed position; wherein the first base and the second base are provided with a first groove and a second groove for receiving the latch , respectively, and characterized in that the latch is provided with a latch rotating shaft mounted on the first base through a limit screw so that the latch is rotatable around the first base . wherein the locking module comprises a latch mounted on a first base on a first main body, an oblique pin ring gear mounted on a second base on a second main body and adapted to the latch ; the radial thickness of the oblique pin ring gear changes continuously; a first slot is arranged on the latch , and wherein the driving module is used for driving the oblique pin ring gear to move in a circular motion, such that the oblique pin ring gear clips to or separates from the first slot of the latch that is in a closed position; wherein the first base and the second base are provided with a first groove and a second groove for receiving the latch , respectively, and characterized in that the latch is provided with a latch rotating shaft mounted on the first base through a limit screw so that the latch is rotatable around the first base .
A monitoring device for monitoring the level of cure of a light-activated resin film during a light curing process, comprising: an infrared light source that emits infrared light; an optical filter positioned so that a wavelength of the light is transmitted through the optical filter after the light is reflected off of at least one of a reflective substrate and the light-activated resin film located on and curable to or at least partially cured to the substrate ; and an optical detector positioned to detect the reflected light that is transmitted through the optical filter , wherein the angle of reflection of the reflected light corresponds to an angle at which the light is emitted toward the film and the substrate ; wherein the monitoring device is configured to determine the level of cure of the film based at least in part on the detected intensity of the light; wherein the monitoring device is characterized in that the optical filter includes a bandpass filter only permitting light within a wavelength range of 6 micrometers to 12 micrometers to be transmitted through the optical filter , and the infrared light source and optical detector are each positioned at an angle of approximately 10° with respect to an axis normal to the film and the substrate . an infrared light source that emits infrared light; an optical filter positioned so that a wavelength of the light is transmitted through the optical filter after the light is reflected off of at least one of a reflective substrate and the light-activated resin film located on and curable to or at least partially cured to the substrate ; and an optical detector positioned to detect the reflected light that is transmitted through the optical filter , wherein the angle of reflection of the reflected light corresponds to an angle at which the light is emitted toward the film and the substrate ; wherein the monitoring device is configured to determine the level of cure of the film based at least in part on the detected intensity of the light; wherein the monitoring device is characterized in that the optical filter includes a bandpass filter only permitting light within a wavelength range of 6 micrometers to 12 micrometers to be transmitted through the optical filter , and the infrared light source and optical detector are each positioned at an angle of approximately 10° with respect to an axis normal to the film and the substrate .
An input device for inputting information corresponding to a touch operation on a detection surface , comprising: a sensor unit configured to detect a proximity degree of an object with respect to the detection surface and generate a detection value corresponding to the proximity degree of the object as a result of the detection; a change amount calculation unit configured to calculate a temporal change amount of the generated detection value, wherein a difference between a base value and the generated detection value is calculated as the change amount; and a determination unit configured to determine a touch operation based on the calculated change amount; characterized in that the base value is initially set to an initial value which is a detection value immediately after turning on a power of the input device and the base value is updated based on a weighted average value of detection values in a state in which an object is not close to the detection surface , and the input device further comprises a reset unit configured to perform resetting the base value to the initial value in a case where a duration of a state in which the touch operation is determined is equal to or longer than a first predetermined time, two or more peak values that are spatial maximum values of the change amount on the detection surface are present, and a difference between a first peak value, which is a largest peak value, and a second peak value, which is a second largest peak value, is equal to or greater than a predetermined value. a sensor unit configured to detect a proximity degree of an object with respect to the detection surface and generate a detection value corresponding to the proximity degree of the object as a result of the detection; a change amount calculation unit configured to calculate a temporal change amount of the generated detection value, wherein a difference between a base value and the generated detection value is calculated as the change amount; and a determination unit configured to determine a touch operation based on the calculated change amount; characterized in that the base value is initially set to an initial value which is a detection value immediately after turning on a power of the input device and the base value is updated based on a weighted average value of detection values in a state in which an object is not close to the detection surface , and the input device further comprises a reset unit configured to perform resetting the base value to the initial value in a case where a duration of a state in which the touch operation is determined is equal to or longer than a first predetermined time, two or more peak values that are spatial maximum values of the change amount on the detection surface are present, and a difference between a first peak value, which is a largest peak value, and a second peak value, which is a second largest peak value, is equal to or greater than a predetermined value.
A computer-implemented selective execution tracing method for code executed by a computer processor, the method comprising: at an entry point of a code unit, setting a distance variable to a value which is not less than a positive nonzero high-count threshold , the distance variable measuring relative distances in computational cost from tracing disablement, wherein the distance variable represents a maximum number of instructions to trace; in conjunction with setting the distance variable to a positive value not less than the positive nonzero high-count threshold, making a call which enables tracing by an execution tracer for at most the distance variable's value number of instructions if tracing was not already enabled, and which leaves tracing enabled if tracing was already enabled; at an exit point of the code unit, setting the distance variable to a positive nonzero low-count threshold which is less than the high-count threshold; automatically decrementing the distance variable as the computer processor executes instructions of a computer process that contains the code unit; the execution tracer tracing the execution of the computer process when the value of the distance variable is positive and the execution tracer is enabled; and disabling tracing of the execution of the computer process in response to the value of the distance variable reaching a stop tracing value . at an entry point of a code unit, setting a distance variable to a value which is not less than a positive nonzero high-count threshold , the distance variable measuring relative distances in computational cost from tracing disablement, wherein the distance variable represents a maximum number of instructions to trace; in conjunction with setting the distance variable to a positive value not less than the positive nonzero high-count threshold, making a call which enables tracing by an execution tracer for at most the distance variable's value number of instructions if tracing was not already enabled, and which leaves tracing enabled if tracing was already enabled; at an exit point of the code unit, setting the distance variable to a positive nonzero low-count threshold which is less than the high-count threshold; automatically decrementing the distance variable as the computer processor executes instructions of a computer process that contains the code unit; the execution tracer tracing the execution of the computer process when the value of the distance variable is positive and the execution tracer is enabled; and disabling tracing of the execution of the computer process in response to the value of the distance variable reaching a stop tracing value .
Decoupling element which serves for decoupling a fuel injection valve from a cylinder head , having a main body which, in the installed state, serves for surrounding a housing of the fuel injection valve , wherein, on the main body , there are formed a cylinder-side bearing region , which serves for support on the cylinder head , and a valve-side support region , which serves for supporting the fuel injection valve , wherein only the cylinder-side bearing region of the main body is formed at least partially in the manner of a closed ring , and the main body has segments (15 - 18) which are distributed over a circumference and which are connected to one another by the closed ring of the cylinder-side bearing region , characterized in that , at least on one segment of the valve-side support region , there is formed a securing element which, in the installed state, interacts with the housing of the fuel injection valve to form a retainer.