mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus comprising: a pressure sensor to sense an amount of pressure associated with a touch event; and an image processing controller configured to generate at least one image of an object by determining a reference location of the touch event and determining region growing parameters based on the sensed amount of pressure received from the pressure sensor, and to perform a region growing operation from the reference location based on the region growing parameters, and wherein the region growing parameters comprise a range of a detection region of image data, wherein the detection region indicates a predefined region of the image which is formed of an array of image data to be compared with the reference data of the reference location; and wherein the image processing controller is configured to increase the range of the detection region of image data as the sensed amount of pressure associated with the touch event increases and to decrease the range of the detection region of image data as the sensed amount of pressure associated with the touch event decreases. a pressure sensor to sense an amount of pressure associated with a touch event; and an image processing controller configured to generate at least one image of an object by determining a reference location of the touch event and determining region growing parameters based on the sensed amount of pressure received from the pressure sensor, and to perform a region growing operation from the reference location based on the region growing parameters, and wherein the region growing parameters comprise a range of a detection region of image data, wherein the detection region indicates a predefined region of the image which is formed of an array of image data to be compared with the reference data of the reference location; and wherein the image processing controller is configured to increase the range of the detection region of image data as the sensed amount of pressure associated with the touch event increases and to decrease the range of the detection region of image data as the sensed amount of pressure associated with the touch event decreases.
Method for dynamically calibrating a distributed acoustic sensing system (100, 200, 300, 400, 500) comprising a light source for generating pulses of coherent light, an optical fibre arranged at least partly in a ground soil region to guide the light and a photo detector for detecting scattered light returning from the optical fibre in dependence of time, the method comprising: obtaining information from which a temporal change of an acoustic transfer characteristic of the ground soil region is derivable; and calibrating the distributed acoustic sensing system (100, 200, 300, 400, 500) based on the changed acoustic transfer characteristic, wherein obtaining the information comprises: obtaining influence information about an influence factor effecting a temporal change of the acoustic transfer characteristic; wherein the method is characterised by further comprising: estimating a changed acoustic transfer characteristic based on the influence information, wherein obtaining the influence information comprises acquiring spatially resolved weather information regarding atmospheric precipitation from a weather information source. the method comprising: obtaining information from which a temporal change of an acoustic transfer characteristic of the ground soil region is derivable; and calibrating the distributed acoustic sensing system (100, 200, 300, 400, 500) based on the changed acoustic transfer characteristic, obtaining information from which a temporal change of an acoustic transfer characteristic of the ground soil region is derivable; and calibrating the distributed acoustic sensing system (100, 200, 300, 400, 500) based on the changed acoustic transfer characteristic, wherein obtaining the information comprises: obtaining influence information about an influence factor effecting a temporal change of the acoustic transfer characteristic; wherein the method is characterised by further comprising: estimating a changed acoustic transfer characteristic based on the influence information, wherein obtaining the influence information comprises acquiring spatially resolved weather information regarding atmospheric precipitation from a weather information source.
A method of authenticating a user of a computing device, the computing device having a memory storing a base image and an overlay image, the base image having a pre-selected base image reference point, and the overlay image having an overlay image reference point, the method comprising: generating a modified base image having the pre-selected base image reference point; generating a modified overlay image having the overlay image reference point; displaying, on a display, the modified base image overlaid by the modified overlay image; receiving an input for moving one of the modified base image and the modified overlay image; moving the one of the modified base image and the modified overlay image in response to the input; and in response to alignment of the base image reference point within a tolerance zone of the overlay image reference point on the display, comparing a first angle from which alignment is reached with a second angle from which a previous alignment was reached and indicating positive authentication only if the first angle and the second angle are different, wherein at least one of the base image reference point and the overlay image reference point has coordinates in three dimensions. generating a modified base image having the pre-selected base image reference point; generating a modified overlay image having the overlay image reference point; displaying, on a display, the modified base image overlaid by the modified overlay image; receiving an input for moving one of the modified base image and the modified overlay image; moving the one of the modified base image and the modified overlay image in response to the input; and in response to alignment of the base image reference point within a tolerance zone of the overlay image reference point on the display, comparing a first angle from which alignment is reached with a second angle from which a previous alignment was reached and indicating positive authentication only if the first angle and the second angle are different, wherein at least one of the base image reference point and the overlay image reference point has coordinates in three dimensions.
Device to be arranged in a floor construction in between a first flooring section and a second flooring section, the device comprising a base plate capable of supporting the first and second flooring section (11, 12) and attached to the base plate a first decoupling element capable of decreasing the sound transmission between the first and second flooring section (11, 12), wherein the first decoupling element is made of a flexible material, characterized in that the base plate comprises a rigid material, which is a cementitious material or a calcium sulfate material. wherein the first decoupling element is made of a flexible material, characterized in that the base plate comprises a rigid material, which is a cementitious material or a calcium sulfate material.
A method of manufacturing, comprising: providing a semiconductor chip having a first conductor pad and a passivation structure; fabricating a second conductor pad on the passivation structure around but not in physical contact with the first conductor pad to leave a gap, and fabricating an underbump metallization structure in electrical contact with the first conductor pad, the underbump metallization structure including a portion overlapping vertically with the second conductor pad, and separated therefrom by a polymer layer, the second conductor pad thereby protecting a portion of the passivation structure from stress imparted by the overlapping portion, wherein a third conductor pad is fabricated in an additional polymer film over the gap on the polymer film and under the overlapping part of the underbump metallization structure to protect a portion of the passivation structure under the gap. providing a semiconductor chip having a first conductor pad and a passivation structure; fabricating a second conductor pad on the passivation structure around but not in physical contact with the first conductor pad to leave a gap, and fabricating an underbump metallization structure in electrical contact with the first conductor pad, the underbump metallization structure including a portion overlapping vertically with the second conductor pad, and separated therefrom by a polymer layer, the second conductor pad thereby protecting a portion of the passivation structure from stress imparted by the overlapping portion,
A wireless charging and communication board, comprising: a plurality of soft magnetic layers(220, 230) comprising a first soft magnetic layer and a second soft magnetic layer; a first polymeric material layer arranged on a first surface of the plurality of the soft magnetic layers(220, 230); a second polymeric material layer arranged on a second surface of the plurality of the soft magnetic layers(220, 230) opposite to the first surface; and a coil pattern(120, 130) arranged on the second polymeric material layer, wherein at least one of the first soft magnetic layer and the second soft magnetic layer is made with one or more of an amorphous alloy, a crystalline alloy, an amorphous alloy ribbon, a nanocrystalline ribbon, and a silicon steel plate, wherein the plurality of the soft magnetic layers(220, 230) are positioned between the first polymeric material layer and the second polymeric material layer, wherein the first polymeric material layer includes a first extending portion extending longer than the plurality of the soft magnetic layers(220, 230), characterized in that the second polymeric material layer includes a second extending portion extending longer than the plurality of the soft magnetic layers(220, 230), wherein the first extending portion and the second extending portion are connected to each other. a plurality of soft magnetic layers(220, 230) comprising a first soft magnetic layer and a second soft magnetic layer; a first polymeric material layer arranged on a first surface of the plurality of the soft magnetic layers(220, 230); a second polymeric material layer arranged on a second surface of the plurality of the soft magnetic layers(220, 230) opposite to the first surface; and a coil pattern(120, 130) arranged on the second polymeric material layer, wherein at least one of the first soft magnetic layer and the second soft magnetic layer is made with one or more of an amorphous alloy, a crystalline alloy, an amorphous alloy ribbon, a nanocrystalline ribbon, and a silicon steel plate, wherein the plurality of the soft magnetic layers(220, 230) are positioned between the first polymeric material layer and the second polymeric material layer, wherein the first polymeric material layer includes a first extending portion extending longer than the plurality of the soft magnetic layers(220, 230), characterized in that the second polymeric material layer includes a second extending portion extending longer than the plurality of the soft magnetic layers(220, 230), wherein the first extending portion and the second extending portion are connected to each other.
A composition comprising a CRISPR-Cas chimeric guide, said CRISPR-Cas chimeric guide comprising a guide sequence, a tracr sequence and a tracr mate sequence, the guide sequence being capable of hybridizing to a target sequence in a genomic locus of interest in a cell, wherein at least one loop of the CRISPR-Cas chimeric guide is modified by the insertion of distinct RNA sequence(s) that bind to one or more adaptor proteins, and wherein the adaptor protein is associated with one or more functional domains, optionally wherein one or more adaptor proteins is present and bound to the distinct RNA sequence(s) inserted into the at least one loop of the CRISPR-Cas chimeric guide.
A multi-stage turbomachine comprising a central part having at least two bearings from which part there extends at least on one side a shaft guided by said bearings and on which shaft there are mounted, in cantilever fashion, two radial wheels (22, 34), wherein the two radial wheels (22, 34) are separated from one another by a leak-tight partition, the leak-tight partition having thermal insulation, wherein each of the two radial wheels (22, 34) is mounted in its casing (24, 32, 40), each casing having a dedicated fluid inlet (24a, 42) and a dedicated fluid outlet (24b, 44), and the casing (32, 40) corresponding to the distal wheel has the leak-tight partition as a common proximal part with the proximal wheel casing and a distal part in the form of a plate attached to the casing of the proximal wheel. wherein the two radial wheels (22, 34) are separated from one another by a leak-tight partition, the leak-tight partition having thermal insulation, wherein each of the two radial wheels (22, 34) is mounted in its casing (24, 32, 40), each casing having a dedicated fluid inlet (24a, 42) and a dedicated fluid outlet (24b, 44), and the casing (32, 40) corresponding to the distal wheel has the leak-tight partition as a common proximal part with the proximal wheel casing and a distal part in the form of a plate attached to the casing of the proximal wheel.
(1R,5S)-(+)-1-(naphthalen-2-yl)-3-azabicyclo[3.1.0]hexane or a pharmaceutically acceptable salt thereof for use in the treatment of ADHD, wherein (1R,5S)-(+)-1-(naphthalen-2-yl)-3-azabicyclo[3.1.0]hexane or a pharmaceutically acceptable salt thereof is administered at dosages of 50 to 100 mg, of 100 to 250 mg, or of 250 to 500 mg, one, two, three or four times a day.
An air distribution device, connected to a supply air duct, comprising: an air inlet opening for ventilation air; an air distribution chamber arranged to receive a flow of ventilation air (10,11,12) from the air inlet opening, the air distribution chamber being bounded by at least an inner perforated wall allowing air to exit from the distribution chamber, an air impermeable wall opposite the air inlet opening and an air impermeable wall contiguous with the air inlet opening wherein the air distribution chamber further comprises at least one perforated throttling plate (132, 142) or throttling mesh (132, 142) perpendicular to the inner perforated wall and perpendicular to the flow of ventilation air (10, 11, 12) from the air inlet opening into the air distribution chamber; and a pressure equalization chamber (116, 118) bounded by the inner perforated wall, an outer perforated wall parallel to the inner perforated wall within a distance from the inner perforated wall, a section of the air impermeable wall opposite the air inlet opening and a section of the air impermeable wall contiguous with the air inlet opening, characterized in that a perforation-free area of the outer perforated wall is smaller than the perforation free area of the inner perforated wall in order to equalize ventilation air pressure in the equalization chamber and to provide a uniform flow of air through the outer perforated wall. an air inlet opening for ventilation air; an air distribution chamber arranged to receive a flow of ventilation air (10,11,12) from the air inlet opening, the air distribution chamber being bounded by at least an inner perforated wall allowing air to exit from the distribution chamber, an air impermeable wall opposite the air inlet opening and an air impermeable wall contiguous with the air inlet opening wherein the air distribution chamber further comprises at least one perforated throttling plate (132, 142) or throttling mesh (132, 142) perpendicular to the inner perforated wall and perpendicular to the flow of ventilation air (10, 11, 12) from the air inlet opening into the air distribution chamber; and a pressure equalization chamber (116, 118) bounded by the inner perforated wall, an outer perforated wall parallel to the inner perforated wall within a distance from the inner perforated wall, a section of the air impermeable wall opposite the air inlet opening and a section of the air impermeable wall contiguous with the air inlet opening, characterized in that a perforation-free area of the outer perforated wall is smaller than the perforation free area of the inner perforated wall in order to equalize ventilation air pressure in the equalization chamber and to provide a uniform flow of air through the outer perforated wall.
An information processing apparatus comprising: an acquisition unit configured to acquire features used for deriving a positional attitude of an imaging device from an image captured by the imaging device; a setting unit configured to set a plurality of partial regions included in the image as a plurality of candidate regions to which a new feature that does not exist in the image is to be added; an evaluation unit configured to evaluate the plurality of set candidate regions; a determination unit configured to determine a position and an orientation of the new feature to be added based on the plurality of evaluated candidate regions; and an output unit configured to output the image on which information indicating the determined position and the orientation is superimposed. an acquisition unit configured to acquire features used for deriving a positional attitude of an imaging device from an image captured by the imaging device; a setting unit configured to set a plurality of partial regions included in the image as a plurality of candidate regions to which a new feature that does not exist in the image is to be added; an evaluation unit configured to evaluate the plurality of set candidate regions; a determination unit configured to determine a position and an orientation of the new feature to be added based on the plurality of evaluated candidate regions; and an output unit configured to output the image on which information indicating the determined position and the orientation is superimposed.
A method for producing a composite structure comprising a thin layer made of a first monocrystalline material arranged on a support substrate, the method comprising: - a step a) of providing a donor substrate which is composed of the first monocrystalline material and has a front face and a rear face, - a step b) of providing a support substrate which has a front face, a rear face, an edge and a first alignment pattern on one of said faces or on the edge, - a step c) of heat treatment applied at least to the donor substrate, under a controlled atmosphere and at a temperature capable of causing a surface reorganization on at least one of the faces (10a,10b) of said substrate, the surface reorganization leading to the formation of first steps of nanometric amplitude that are parallel to a first main axis, - a step d) of joining the donor substrate and the support substrate, this step comprising, before bringing the substrates (10,20) into contact, an optical alignment, to better than +/-0.1°, between a locating mark indicating the first main axis on the donor substrate and at least one alignment pattern (21,22) of the support substrate, - a step e) of transferring a thin layer from the donor substrate onto the support substrate. - a step a) of providing a donor substrate which is composed of the first monocrystalline material and has a front face and a rear face, - a step b) of providing a support substrate which has a front face, a rear face, an edge and a first alignment pattern on one of said faces or on the edge, - a step c) of heat treatment applied at least to the donor substrate, under a controlled atmosphere and at a temperature capable of causing a surface reorganization on at least one of the faces (10a,10b) of said substrate, the surface reorganization leading to the formation of first steps of nanometric amplitude that are parallel to a first main axis, - a step d) of joining the donor substrate and the support substrate, this step comprising, before bringing the substrates (10,20) into contact, an optical alignment, to better than +/-0.1°, between a locating mark indicating the first main axis on the donor substrate and at least one alignment pattern (21,22) of the support substrate, - a step e) of transferring a thin layer from the donor substrate onto the support substrate.
A liquid ring pump comprising: a pump head having an inlet opening, an outlet opening, and an anti-cavitation opening; a pump housing coupled to the pump head and defining a chamber that is substantially enclosed by the pump housing and the pump head; a rotor at least partially disposed in the chamber; a port member disposed in the chamber and positioned adjacent the rotor, the port member including a wall that defines an inlet port, a discharge port, and an anti-cavitation port each separate from the others; and a plurality of blades arranged around a rotational axis of the rotor, wherein each pair of adjacent blades partially define a bucket therebetween, and wherein each bucket rotates from a first position in which the bucket is positioned between the discharge port and the inlet port, to a second position in which the bucket is in fluid communication with the inlet port to draw fluid into the bucket, to a third position in which the bucket is in fluid communication with the anti- cavitation port to admit fluid to a fourth position and to a fifth position in which the bucket is in fluid communication with the discharge port to discharge the fluid within the bucket characterized in that in the fourth position the bucket is in fluid communication with the anti-cavitation port to admit fluid into the bucket and in fluid communication with the discharge port to discharge fluid within the bucket. a pump head having an inlet opening, an outlet opening, and an anti-cavitation opening; a pump housing coupled to the pump head and defining a chamber that is substantially enclosed by the pump housing and the pump head; a rotor at least partially disposed in the chamber; a port member disposed in the chamber and positioned adjacent the rotor, the port member including a wall that defines an inlet port, a discharge port, and an anti-cavitation port each separate from the others; and a plurality of blades arranged around a rotational axis of the rotor, wherein each pair of adjacent blades partially define a bucket therebetween, and wherein each bucket rotates from a first position in which the bucket is positioned between the discharge port and the inlet port, to a second position in which the bucket is in fluid communication with the inlet port to draw fluid into the bucket, to a third position in which the bucket is in fluid communication with the anti- cavitation port to admit fluid to a fourth position and to a fifth position in which the bucket is in fluid communication with the discharge port to discharge the fluid within the bucket characterized in that in the fourth position the bucket is in fluid communication with the anti-cavitation port to admit fluid into the bucket and in fluid communication with the discharge port to discharge fluid within the bucket.
An electrocatalyst comprising a Ti substrate coated with a 3D Cu nanostructured matrix decorated with a mixture of amorphous TiO 2 nanoparticles and nanoparticles of a noble metal.