mhurhangee/ep-ind-claims huggingface dataset:
A method for positioning a hairline contour, comprising: obtaining a to-be-detected face image; generating an initial hairline contour of the to-be-detected face image; calculating, in a grayscale image, a difference between grayscale values of a pixel on the initial hairline contour and a neighboring pixel; and adjusting the initial hairline contour based on the difference between the grayscale values, to generate an accurate hairline contour of the to-be-detected face image, wherein the adjusting the initial hairline contour based on the difference between the grayscale values, to generate an accurate hairline contour of the to-be-detected face image comprises: determining a target pixel based on the difference between the grayscale values of the pixel on the initial hairline contour and the neighboring pixel, wherein a difference between grayscale values of the target pixel and the neighboring pixel is greater than a preset threshold; and using the target pixel as a pixel on the accurate hairline contour, and generating the accurate hairline contour of the to-be-detected face image based on a change trend of the initial hairline contour. obtaining a to-be-detected face image; generating an initial hairline contour of the to-be-detected face image; calculating, in a grayscale image, a difference between grayscale values of a pixel on the initial hairline contour and a neighboring pixel; and adjusting the initial hairline contour based on the difference between the grayscale values, to generate an accurate hairline contour of the to-be-detected face image, wherein the adjusting the initial hairline contour based on the difference between the grayscale values, to generate an accurate hairline contour of the to-be-detected face image comprises: determining a target pixel based on the difference between the grayscale values of the pixel on the initial hairline contour and the neighboring pixel, wherein a difference between grayscale values of the target pixel and the neighboring pixel is greater than a preset threshold; and using the target pixel as a pixel on the accurate hairline contour, and generating the accurate hairline contour of the to-be-detected face image based on a change trend of the initial hairline contour. determining a target pixel based on the difference between the grayscale values of the pixel on the initial hairline contour and the neighboring pixel, wherein a difference between grayscale values of the target pixel and the neighboring pixel is greater than a preset threshold; and using the target pixel as a pixel on the accurate hairline contour, and generating the accurate hairline contour of the to-be-detected face image based on a change trend of the initial hairline contour.
Semifinished wire for a superconducting wire containing Nb3Sn, comprising - a Cu stabilization cladding tube, - a ring-shaped closed diffusion barrier in the inside of the Cu stabilization cladding tube, - a plurality of PIT elements in the inside of the diffusion barrier, each comprising - a cladding containing Cu, - a small tube, and - a powder core containing Sn, characterized in that the small tube consists of Nb or an alloy containing Nb, that the diffusion barrier has a percentage of area ADF in cross-section of the semifinished wire of 3% ≤ ADF 9% and moreover has a wall thickness WDF with 8μm ≤ WDF ≤ 25μm, and that moreover a plurality of filler elements are arranged in the inside of the diffusion barrier, wherein the inner sides of the filler elements abut the PIT elements. - a Cu stabilization cladding tube, - a ring-shaped closed diffusion barrier in the inside of the Cu stabilization cladding tube, - a plurality of PIT elements in the inside of the diffusion barrier, each comprising - a cladding containing Cu, - a small tube, and - a powder core containing Sn, - a cladding containing Cu, - a small tube, and - a powder core containing Sn,
Method for performance analysis of a software application by its parallel execution over several computational nodes of a cluster of reference servers further comprising several storage nodes and at least one interconnection network of the computational and storage nodes between them for the exchange of messages according to a predetermined message passing protocol, the method including: - a first execution of the software application by the cluster of servers, involving exchanges of useful data at its execution between the computational and storage nodes of the cluster of servers executed by the interconnection network according to the predetermined protocol by encapsulating these useful data in messages of predetermined size; - a second execution of the software application by the cluster of servers, involving the same exchanges of useful data between the same computational and storage nodes of the cluster of servers executed by the same interconnection network according to the same predetermined protocol; - an extrapolation of the software application performance based on at least one of the two executions; characterised in that: - the predetermined size of the messages exchanged during the second execution differs from that of the messages exchanged during the first execution although the useful data exchanged are the same; and - the extrapolation of the software application performance comprises a simulation of a variation of a bandwidth of the interconnection network based on the difference in predetermined size of the messages exchanged during the first and the second execution (104, 108). - a first execution of the software application by the cluster of servers, involving exchanges of useful data at its execution between the computational and storage nodes of the cluster of servers executed by the interconnection network according to the predetermined protocol by encapsulating these useful data in messages of predetermined size; - a second execution of the software application by the cluster of servers, involving the same exchanges of useful data between the same computational and storage nodes of the cluster of servers executed by the same interconnection network according to the same predetermined protocol; - an extrapolation of the software application performance based on at least one of the two executions; - the predetermined size of the messages exchanged during the second execution differs from that of the messages exchanged during the first execution although the useful data exchanged are the same; and - the extrapolation of the software application performance comprises a simulation of a variation of a bandwidth of the interconnection network based on the difference in predetermined size of the messages exchanged during the first and the second execution (104, 108).
A proximity wireless communication device comprising: a first communication block and a second communication block, wherein the first communication block has a first surface defining a first plane, and a projection equipped in a part of the first surface, and a first antenna is disposed in an upper surface of the projection which defines a second plane and a second antenna is disposed in the first surface, the second communication block has a second surface and a recess equipped in a part of the second surface, and a third antenna is disposed in a bottom surface of the recess and a fourth antenna is disposed in the second surface, the first surface and the second surface face in proximity, the projection and the recess fit, and the upper surface of the projection and the bottom surface of the recess face in proximity, and non-contact near-field wireless communication is carried out between the first antenna and the third antenna through the second plane, and between the second antenna and the fourth antenna through the first plane, wherein the first plane and the second plane are apart by a predetermined distance in a direction in which the projection and the recess extend. a first communication block and a second communication block, wherein the first communication block has a first surface defining a first plane, and a projection equipped in a part of the first surface, and a first antenna is disposed in an upper surface of the projection which defines a second plane and a second antenna is disposed in the first surface, the second communication block has a second surface and a recess equipped in a part of the second surface, and a third antenna is disposed in a bottom surface of the recess and a fourth antenna is disposed in the second surface, the first surface and the second surface face in proximity, the projection and the recess fit, and the upper surface of the projection and the bottom surface of the recess face in proximity, and non-contact near-field wireless communication is carried out between the first antenna and the third antenna through the second plane, and between the second antenna and the fourth antenna through the first plane, wherein the first plane and the second plane are apart by a predetermined distance in a direction in which the projection and the recess extend.
Supersonic speed attenuator of an air intake of an aircraft propulsion assembly, said aircraft propulsion assembly extending longitudinally along an axis oriented from upstream to downstream and comprising a turbomachine configured to enable the propulsion of the aircraft at supersonic speeds from the acceleration of a subsonic air flow circulating from upstream to downstream in the turbomachine, said air intake comprising a duct of longitudinal axis configured to guide the air flow into the turbomachine, said supersonic speed attenuator being configured to extend fixed inside the duct along the longitudinal axis, said air intake comprising at least one support arm connecting the supersonic speed attenuator to the duct, said supersonic speed attenuator comprising: - upstream, a conical outer wall with a tapered end, - an inner partition delimiting a cavity with the conical outer wall, - supersonic speed attenuator characterized by the fact that it comprises a de-icing device comprising: - an inner wall mounted in the cavity opposite the conical outer wall so as to delimit together a calibrated de-icing volume, - at least one member for supplying with de-icing air flow (F D) emerging into the de-icing volume, and - at least one member for discharging the de-icing air flow (F D) from the de-icing volume. - upstream, a conical outer wall with a tapered end, - an inner partition delimiting a cavity with the conical outer wall, - supersonic speed attenuator characterized by the fact that it comprises a de-icing device comprising: - an inner wall mounted in the cavity opposite the conical outer wall so as to delimit together a calibrated de-icing volume, - at least one member for supplying with de-icing air flow (F D) emerging into the de-icing volume, and - at least one member for discharging the de-icing air flow (F D) from the de-icing volume. - an inner wall mounted in the cavity opposite the conical outer wall so as to delimit together a calibrated de-icing volume, - at least one member for supplying with de-icing air flow (F D) emerging into the de-icing volume, and - at least one member for discharging the de-icing air flow (F D) from the de-icing volume.
Capping device assembly for capping the excess length of an edge strip arranged on the narrow side of a plate-form workpiece, having a movement device to move the workpiece in a movement direction and a capping device with a capping unit (4a, 4b), which is designed to feed the workpiece in a feed direction perpendicular to the movement direction, wherein to carry out the feed movement the capping unit (4a, 4b) is mounted on an eccentric device (41, 42) driven via a rotary drive, wherein the capping device assembly further has a control device, which controls the feed of the capping unit (4a, 4b) as a function of the movement of the workpiece, characterised in that the capping device assembly has a feeler element that can be moved in the movement direction for abutment against the edge of the workpiece running ahead in the movement direction and / or running behind in the movement direction, wherein the control device is designed so that it receives the movement information of the feeler element and brings about the feeding of the capping unit (4a, 4b) as a function of the movement information received.
Jet engine having a chamber (38, 39, 40), which is delimited in a radial direction by a fixed housing with a fixed wall region, of a planetary gear box device, or a bearing chamber (38, 39), in which a rotatable device (29; 70) which can be impinged on with hydraulic fluid is arranged, wherein hydraulic fluid and air introduced into the chamber (38, 39, 40) through the housing can be discharged from the chamber (38, 39, 40), wherein the housing is, in a region (57A; 57A, 57B) through which air and hydraulic fluid can be discharged from the chamber (38, 39, 40), formed with a separating device (63; 63A) for separating oil from an air-oil mixture, in the region of which separating device air and hydraulic fluid can be separated from one another, wherein the separating device (63; 63A) is formed with a grille structure and/or a cellular structure, through which the air-oil mixture flows for the separation of oil from the air-oil mixture, and, on a side facing towards an interior space of the chamber (38, 39, 40), said separating device is fixedly connected to the wall region.
Method for optical surface measurement of a measurement object, wherein using an image generation device which has a projector and/or a monitor and/or a screen, an image pattern is displayed and the measurement object is irradiated with this image pattern produced, and wherein the image pattern influenced by the measurement object by means of reflection, scattering, diffraction and/or transmission is recorded by means of a detection device, wherein, by means of a correction function, the image generation device and consequently the image pattern displayed is adapted in such a manner that the influenced image pattern recorded by the detection device temporally and/or locally has an at least substantially constant and/or homogeneous and/or linear brightness, characterised in that, by means of the correction function, a non-homogeneous brightness distribution of the image generation device is corrected so that the image pattern display has a distribution which is homogeneous over the surface of the image generation device, or in that, by means of the correction function, the grey scale value distribution and/or colour distribution of a series of several image patterns which are displayed one after the other is adapted in such a manner that the image patterns displayed in each case at least substantially have a uniform overall brightness. characterised in that, by means of the correction function, a non-homogeneous brightness distribution of the image generation device is corrected so that the image pattern display has a distribution which is homogeneous over the surface of the image generation device, or in that, by means of the correction function, the grey scale value distribution and/or colour distribution of a series of several image patterns which are displayed one after the other is adapted in such a manner that the image patterns displayed in each case at least substantially have a uniform overall brightness.
A hand-push scrubber capable of multi-directional cleaning, comprising a main body, a frame, a handle connecting rod, a handle, a button, a hub motor, a swing head, and a vacuum motor, the main body comprising a brush disc motor, a motor mounting plate, a rotating assembly, a squeegee assembly, a locker, and a brush disc, characterized in that the button is respectively disposed on both sides of the handle, and the hub motor is respectively disposed on both sides of the frame symmetrically, a convex column is formed outward from a center of an upper side of the locker, the rotating assembly is disposed between the motor mounting plate and the locker, the squeegee assembly capable of swinging upward and downward is disposed on the rotating assembly, and the rotating assembly comprises a connecting sleeve, a mounting sleeve, and a bottom cover ring, the connecting sleeve being fixed on a lower surface of the motor mounting plate, a sleeve portion being formed outward from a center of the lower surface of the connecting sleeve, the sleeve portion being sleeved on an exterior of the convex column, the mounting sleeve being rotatably sleeved at an outer side of the sleeve portion, an upper side of the bottom cover ring being fixed at a lower end of the sleeve portion, the bottom cover ring being sleeved on the exterior of the convex column, and the squeegee assembly being disposed on an outer side of the mounting sleeve.
An adhesive composition comprising, on the basis of the total weight thereof: 0.5 to 4.0 % by weight of the epoxy compound; 1.0 to 8.0 % by weight of the isocyanate compound; 1.7 to 22 % by weight of the rubber latex; 1.0 to 8.0 % by weight of the polyurethane dispersion resin; 0.1 to 2.0 % by weight of the amine compound; and 69 to 92 % by weight of the solvent, wherein the epoxy compound and the isocyanate compound have a weight ratio of 1:1 to 1:10. 0.5 to 4.0 % by weight of the epoxy compound; 1.0 to 8.0 % by weight of the isocyanate compound; 1.7 to 22 % by weight of the rubber latex; 1.0 to 8.0 % by weight of the polyurethane dispersion resin; 0.1 to 2.0 % by weight of the amine compound; and 69 to 92 % by weight of the solvent, wherein the epoxy compound and the isocyanate compound have a weight ratio of 1:1 to 1:10.
A travel control device comprising: a side obstacle detection unit (19a to 19d) which divides a range from a lateral side to a rear side of a vehicle into a plurality of detection angle areas (KR1 to KR7), and detects, for each of the plurality of detection angle areas (KR1 to KR7), an obstacle entering the detection angle area (KR1 to KR7) and a distance to the obstacle; a rearward movement preparation detection unit which detects the vehicle preparing to move rearward; a warning unit (27, 30, 33, 36) which provides warning about the obstacle detected by the side obstacle detection unit (19a to 19d); a warning control unit (25, 26, 28, 29, 31, 32, 34, 35) which controls the warning unit (27, 30, 33, 36) so that the warning is provided in a case where the distance to the obstacle detected by the side obstacle detection unit (19a to 19d) is equal to or less than an activation threshold for the warning; and a threshold control unit which, if the rearward movement preparation detection unit detects the vehicle preparing to move rearward and the obstacle is detected in a predetermined detection angle area (KR6, KR7) including one or more rear side areas among the detection angle areas, before being detected in the other detection angle areas (KR1 to KR5), raises the activation threshold so that the timing of the warning becomes earlier than if the obstacle is detected first in the other detection angle areas. a side obstacle detection unit (19a to 19d) which divides a range from a lateral side to a rear side of a vehicle into a plurality of detection angle areas (KR1 to KR7), and detects, for each of the plurality of detection angle areas (KR1 to KR7), an obstacle entering the detection angle area (KR1 to KR7) and a distance to the obstacle; a rearward movement preparation detection unit which detects the vehicle preparing to move rearward; a warning unit (27, 30, 33, 36) which provides warning about the obstacle detected by the side obstacle detection unit (19a to 19d); a warning control unit (25, 26, 28, 29, 31, 32, 34, 35) which controls the warning unit (27, 30, 33, 36) so that the warning is provided in a case where the distance to the obstacle detected by the side obstacle detection unit (19a to 19d) is equal to or less than an activation threshold for the warning; and a threshold control unit which, if the rearward movement preparation detection unit detects the vehicle preparing to move rearward and the obstacle is detected in a predetermined detection angle area (KR6, KR7) including one or more rear side areas among the detection angle areas, before being detected in the other detection angle areas (KR1 to KR5), raises the activation threshold so that the timing of the warning becomes earlier than if the obstacle is detected first in the other detection angle areas.
A photo-acoustic sensor head for the detection of acoustic signals, which are triggered in a sample through absorption of a pulsed measuring light, comprising a contact prism transparent for the measuring light with a sample contact surface, a detection surface arranged opposite the sample contact surface and a light entry surface arranged adjacently to the detection surface as well as means for irradiating the measuring light through the light entry surface in direction of the sample contact surface, wherein a detection device comprising at least one sound converter is arranged so as to cover the detection surface, characterized in that the portions of measuring light reflected at the sample contact surface are directed at the detection surface or a first portion of the reflected portion of measuring light reflected at the sample contact surface is directed at the detection surface and a second portion of the reflected portion of measuring light reflected at the sample contact surface is directed at the light entry surface, wherein a material layer containing a material absorbing the measuring light is arranged between the detection surface and the detection device.
A floating floor panel, comprising a wood based core, and a mechanical locking system for locking the floor panel to adjacent floor panels horizontally and vertically at its long and short sides through angling and/or snapping, characterised in that the floor panel further comprises a resilient surface arranged on said core, the resilient surface comprising a transparent, hard and durable wear layer of plastic material, a reinforcement layer made of an elastic material, and an intermediate decorative layer of plastic film or decorative patterns printed directly on an underside of the transparent wear layer or on an upper side of the elastic reinforcement layer.
A Gli1 inhibitor for use in enhancing remyelination of a central nervous system or peripheral nervous system neuron in a subject in need thereof wherein the Gli1 inhibitor is selected from GANT61 and a compound of formula: wherein n is 0, 1, or 2; R 1 is C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 20 cycloalkyl, C 3 -C 20 cycloalkenyl, C 1 -C 20 heterocycloalkyl, C 1 -C 20 heterocycloalkenyl, aryl, or heteroaryl; and each of R 2, R 3, R 4, R 8, R 6, R 7, R 8, R 9, R 10, and R 11, independently, is H, C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 20 cycloalkyl, C 3 -C 20 cycloalkenyl, C 1 -C 20 heterocycloalkyl, C 1 -C 20 heterocycloalkenyl, aryl, heteroaryl, halo, OR a, COOR a, OC R a, C R a, C NR a R b, or NR a R b, in which each of R a and R b, independently, is H, C 1 -C 10 alkyl, C 3 -C 20 cycloalkyl, C 1 -C 20 heterocycloalkyl, aryl, or heteroaryl wherein the subject has a neurological disorder characterized by myelin loss or myelin deficiency. n is 0, 1, or 2; R 1 is C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 20 cycloalkyl, C 3 -C 20 cycloalkenyl, C 1 -C 20 heterocycloalkyl, C 1 -C 20 heterocycloalkenyl, aryl, or heteroaryl; and each of R 2, R 3, R 4, R 8, R 6, R 7, R 8, R 9, R 10, and R 11, independently, is H, C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 20 cycloalkyl, C 3 -C 20 cycloalkenyl, C 1 -C 20 heterocycloalkyl, C 1 -C 20 heterocycloalkenyl, aryl, heteroaryl, halo, OR a, COOR a, OC R a, C R a, C NR a R b, or NR a R b, in which each of R a and R b, independently, is H, C 1 -C 10 alkyl, C 3 -C 20 cycloalkyl, C 1 -C 20 heterocycloalkyl, aryl, or heteroaryl wherein the subject has a neurological disorder characterized by myelin loss or myelin deficiency.