mhurhangee/ep-ind-claims huggingface dataset:
Apparatus adapted to detect entities in a numerical image comprising a plurality of points, comprising - computing means configured for reading or determining at least one piece of gradient information relating to one of the points of the image, ∘ generating a histogram vector on the basis of at least said gradient information and of partitioning elements, each of said partitioning elements being associated with a quantized gradient angle, and ∘ detecting, based on said histogram vector, the presence of at least one of said entities in the image, - signalling means in signal communication with the computing means, and configured for being activated when said computing means detect the presence of at least one of said entities in the image, characterized in that it also comprises memory means containing said partitioning elements, said partitioning elements being used for the generation of the histogram vector, wherein the gradient information comprises the vertical G V ( x, y) and horizontal G H ( x, y) gradient values associated with said point of the image, wherein the memory means contain also a plurality of pieces of modulus information comprising correction factors, wherein said memory means are also configured for allowing access to at least one of said pieces of modulus information on the basis of said gradient information, and wherein each correction factor allows computing the modulus of the gradient associated with said point of the image, by multiplying said correction factor by the sum of the vertical ( G V ( x, y)) and horizontal ( G H ( x, y)) gradient values, and wherein said modulus of the gradient ( G ( x, y)) is computed as follow: G x, y = G H x, y + G V x, y ⋅ 1 cos α + sin α, and wherein 1 cos α + sin α is the correction factor and α is the gradient angle, and wherein the value of said modulus is added to the component of the histogram vector selected on the basis of the value of the identifier of the partitioning element corresponding to the values of the associated gradient components (G V (x,y)) and (G H (x,y)). - computing means configured for reading or determining at least one piece of gradient information relating to one of the points of the image, ∘ generating a histogram vector on the basis of at least said gradient information and of partitioning elements, each of said partitioning elements being associated with a quantized gradient angle, and ∘ detecting, based on said histogram vector, the presence of at least one of said entities in the image, reading or determining at least one piece of gradient information relating to one of the points of the image, ∘ generating a histogram vector on the basis of at least said gradient information and of partitioning elements, each of said partitioning elements being associated with a quantized gradient angle, and ∘ detecting, based on said histogram vector, the presence of at least one of said entities in the image, - signalling means in signal communication with the computing means, and configured for being activated when said computing means detect the presence of at least one of said entities in the image,
A method for laser welding of an at least two-part workpiece, wherein - the workpiece or a workpiece carrier, on which the workpiece is arranged, and a welding mask are moved relatively toward one another, - an annular connecting region between at least two workpiece parts (2a, 2b) of the workpiece is welded by a laser beam, and - the workpiece or the workpiece carrier on which the workpiece is arranged and the welding mask are moved relatively away from one another, characterized in that the method is performed as vacuum laser welding of the at least two-part workpiece with the following steps: a) the workpiece or the workpiece carrier, on which the workpiece is arranged, and the welding mask are moved relatively toward one another and pressed against one another, so that a welding chamber is enclosed and sealed in a gastight manner by the workpiece and/or the workpiece carrier, the welding mask and a welding mask holder, in which the welding mask is rotatably mounted; b) the welding chamber is evacuated; c) the annular connecting region between the at least two workpiece parts (2a, 2b) of the workpiece that is exposed to the vacuum in the welding chamber is welded by the laser beam, wherein the laser beam propagates through the welding chamber, and wherein the workpiece or the workpiece carrier together with the workpiece and the welding mask are turned in relation to the welding mask holder; d) air is admitted to the welding chamber; e) the workpiece or the workpiece carrier on which the workpiece is arranged and the rotatably mounted welding mask are moved relatively away from one another. - the workpiece or a workpiece carrier, on which the workpiece is arranged, and a welding mask are moved relatively toward one another, - an annular connecting region between at least two workpiece parts (2a, 2b) of the workpiece is welded by a laser beam, and - the workpiece or the workpiece carrier on which the workpiece is arranged and the welding mask are moved relatively away from one another, characterized in that the method is performed as vacuum laser welding of the at least two-part workpiece a) the workpiece or the workpiece carrier, on which the workpiece is arranged, and the welding mask are moved relatively toward one another and pressed against one another, so that a welding chamber is enclosed and sealed in a gastight manner by the workpiece and/or the workpiece carrier, the welding mask and a welding mask holder, in which the welding mask is rotatably mounted; b) the welding chamber is evacuated; c) the annular connecting region between the at least two workpiece parts (2a, 2b) of the workpiece that is exposed to the vacuum in the welding chamber is welded by the laser beam, wherein the laser beam propagates through the welding chamber, and wherein the workpiece or the workpiece carrier together with the workpiece and the welding mask are turned in relation to the welding mask holder; d) air is admitted to the welding chamber; e) the workpiece or the workpiece carrier on which the workpiece is arranged and the rotatably mounted welding mask are moved relatively away from one another.
An information-processing device comprising: a control means for controlling display of windows on a display means that corresponds to an application or a file; a measuring means for, when one or more windows exist that provide data to a subject window that is displayed on the display means, the data being data determining content displayed in the subject window, measuring and storing an amount of data exchanged between the subject window and each of the one or more windows; and a receiving means for receiving an instruction to start display of the subject window again after having been hidden, wherein the control means, when the instruction is received by the receiving means, displays the subject window again after having been hidden and a window whose amount of data measured by the measuring means is larger than that of other windows. a control means for controlling display of windows on a display means that corresponds to an application or a file; a measuring means for, when one or more windows exist that provide data to a subject window that is displayed on the display means, the data being data determining content displayed in the subject window, measuring and storing an amount of data exchanged between the subject window and each of the one or more windows; and a receiving means for receiving an instruction to start display of the subject window again after having been hidden, wherein the control means, when the instruction is received by the receiving means, displays the subject window again after having been hidden and a window whose amount of data measured by the measuring means is larger than that of other windows.
A core holder comprising: an outer body; an internal sleeve in the outer body for storing a core sample; an end cap couplable to the outer body and operable to move from an open position in which the end cap is uncoupled from the outer body to a closed position in which the core holder is sealed; a plurality of ports located on at least one of the outer body or the end cap to allow testing of the core sample; and a valve on the outer body to regulate, direct, or control a flow of fluids and/or gases into or out of core holder to apply confining pressure between the outer body and the internal sleeve; characterised in that the core holder is configured to be placed in x-ray computed tomography equipment to produce a three-dimensional representation of the core sample, and the outer body is an x-ray transparent material. an outer body; an internal sleeve in the outer body for storing a core sample; an end cap couplable to the outer body and operable to move from an open position in which the end cap is uncoupled from the outer body to a closed position in which the core holder is sealed; a plurality of ports located on at least one of the outer body or the end cap to allow testing of the core sample; and a valve on the outer body to regulate, direct, or control a flow of fluids and/or gases into or out of core holder to apply confining pressure between the outer body and the internal sleeve; characterised in that the core holder is configured to be placed in x-ray computed tomography equipment to produce a three-dimensional representation of the core sample, and the outer body is an x-ray transparent material.
A machine tool having a plurality of sensors for recording at least one measured variable each, which sensors are integrated into a first network, wherein the machine tool comprises a synchronisation device, with which the sensors are connected, for the synchronised and/or triggered recording of measured variables, characterised in that one or a plurality of sensors is arranged in a sensor module having a timer which is connected to the synchronisation device, wherein the sensors are designed as acceleration sensors, in particular MEMS sensors, for recording vibrations and an evaluation device is provided which is designed to record a parameter describing the machine condition determined from at least one sensor signal of an acceleration sensor of the plurality of sensors and to compare it with a reference variable.
A method for rendering images on a head mounted display, the method comprising: tracking, with one or more first cameras (302, 304) inside the HMD, a gaze of a user, wherein the HMD cooperates with a computing device for rendering images in the HMD; tracking motion of the HMD by analyzing images of the HMD taken with a second camera that is not in the HMD; predicting a motion of the gaze of the user based on the gaze and the motion of the HMD; determining rendering policies for a plurality of regions defined on a view rendered by the HMD based on the predicted motion of the gaze, wherein the rendering policies comprise assigning a higher rendering order value to regions in a user view area defined by the gaze than to regions outside the user view area such that a pixel in a region with a higher rendering order value is rendered at a higher refresh frequency than a pixel in a region with a lower rendering order value; and rendering images by the HMD based on the rendering policies. tracking, with one or more first cameras (302, 304) inside the HMD, a gaze of a user, wherein the HMD cooperates with a computing device for rendering images in the HMD; tracking motion of the HMD by analyzing images of the HMD taken with a second camera that is not in the HMD; predicting a motion of the gaze of the user based on the gaze and the motion of the HMD; determining rendering policies for a plurality of regions defined on a view rendered by the HMD based on the predicted motion of the gaze, wherein the rendering policies comprise assigning a higher rendering order value to regions in a user view area defined by the gaze than to regions outside the user view area such that a pixel in a region with a higher rendering order value is rendered at a higher refresh frequency than a pixel in a region with a lower rendering order value; and rendering images by the HMD based on the rendering policies.
A sole assembly (10, 10A, 10B) for an article of footwear comprising: a sole plate (12, 12A, 12B) having a recess in a foot-facing surface; an insert plate (24, 24A, 24B) supported by the sole plate (12, 12A, 12B) in the recess; wherein: the insert plate (24, 24A, 24B) is configured to translate in the recess relative to the sole plate (12, 12A, 12B) when the sole assembly (10, 10A, 10B) is flexed in a longitudinal direction of the sole assembly (10, 10A, 10B) over a first range of flexion (FR1, FR1A, FR1B) such that the insert plate (24, 24A, 24B) is free from compressive loading by the sole plate (12, 12A, 12B) during the first range of flexion (FR1, FR1A, FR1B); and the insert plate (24, 24A, 24B) is configured to operatively engage with the sole plate (12, 12A, 12B) in the recess when the sole plate (12, 12A, 12B) is flexed in the longitudinal direction at a first predetermined flex angle (A1, A1A, A12) thereby placing the insert plate (24, 24A, 24B) under compression by the sole plate (12, 12A, 12B) in a second range of flexion (FR2, FR2A, FRB) greater than the first range of flexion (FR1, FR1A, FR1B), the sole assembly thereby having a change in bending stiffness at the first predetermined flex angle (A1, A1A, A12). a sole plate (12, 12A, 12B) having a recess in a foot-facing surface; an insert plate (24, 24A, 24B) supported by the sole plate (12, 12A, 12B) in the recess; wherein: the insert plate (24, 24A, 24B) is configured to translate in the recess relative to the sole plate (12, 12A, 12B) when the sole assembly (10, 10A, 10B) is flexed in a longitudinal direction of the sole assembly (10, 10A, 10B) over a first range of flexion (FR1, FR1A, FR1B) such that the insert plate (24, 24A, 24B) is free from compressive loading by the sole plate (12, 12A, 12B) during the first range of flexion (FR1, FR1A, FR1B); and the insert plate (24, 24A, 24B) is configured to operatively engage with the sole plate (12, 12A, 12B) in the recess when the sole plate (12, 12A, 12B) is flexed in the longitudinal direction at a first predetermined flex angle (A1, A1A, A12) thereby placing the insert plate (24, 24A, 24B) under compression by the sole plate (12, 12A, 12B) in a second range of flexion (FR2, FR2A, FRB) greater than the first range of flexion (FR1, FR1A, FR1B), the sole assembly thereby having a change in bending stiffness at the first predetermined flex angle (A1, A1A, A12).
A binder composition for self-curing mold formation, comprising at least one condensate selected from furfuryl alcohol condensate and furfuryl alcohol/formaldehyde condensate, and an acid-curable resin, wherein about the at least one condensate, the presence ratio by mole of its/their furan rings (a) to the total of its/their methylol groups (b), methylene groups (c) and oxymethylene groups (d), a: (b + c + d), is from 1: 1.00 to 1: 1.08, and the content by percentage of the at least one condensate is from 0.3 to 8.0% by weight.
A dose comprising (i) 220 mg to 600 mg of amantadine or pharmaceutically acceptable salts thereof and (ii) at least one excipient, for use in a method of improving gait in a human subject with multiple sclerosis, the method comprising orally administering the dose to said subject once daily.
Coaxial connector for an electronic card having at least one main face (1.1) and a side (1.3) substantially perpendicular to the main face, the connector comprising a base fastened to a front panel of an electromagnetic shielding box and a pin passing through a first opening in the front panel so that the pin has a free end portion that projects into the box flush with a plane of a second opening defined by the bottom edge of a belt of the box, the box being arranged so that the bottom edge of the belt can bear against the main face of the electronic card while the front panel bears against the side of the electronic card, characterized in that the box has two internal rims extending along the front panel on either side of the free end portion of the pin so as to bear against said main face of the electronic card.
A vehicle traveling assistance method in which a braking timing of a vehicle in manual driving is learned and traveling in automatic driving is assisted based on the learned braking timing, the vehicle traveling assistance method comprising: learning a timing at which a driver of the vehicle terminates an operation of an accelerator pedal as the braking timing of the vehicle in the manual driving; characterized by activating a brake in the automatic driving such that a timing at which the driver senses a braking operation is earlier than the learned braking timing. learning a timing at which a driver of the vehicle terminates an operation of an accelerator pedal as the braking timing of the vehicle in the manual driving; characterized by activating a brake in the automatic driving such that a timing at which the driver senses a braking operation is earlier than the learned braking timing.
A piston for an internal combustion engine, comprising: a piston body having an upper combustion surface configured for direct exposure to combustion gases within a cylinder bore with an undercrown surface beneath said upper combustion surface and having a ring belt region configured for receipt of at least one piston ring adjacent said upper combustion surface with a cooling gallery configured radially inwardly from said ring belt region and in substantial radial alignment with said ring belt region; and a non-stick material bonded to at least one of said undercrown surface and at least a portion of said cooling gallery, characterized by said non-stick material being selected from the group consisting of: pure cobalt, WC-17Co, and Co-18Cr-30Mo. a piston body having an upper combustion surface configured for direct exposure to combustion gases within a cylinder bore with an undercrown surface beneath said upper combustion surface and having a ring belt region configured for receipt of at least one piston ring adjacent said upper combustion surface with a cooling gallery configured radially inwardly from said ring belt region and in substantial radial alignment with said ring belt region; and a non-stick material bonded to at least one of said undercrown surface and at least a portion of said cooling gallery, characterized by said non-stick material being selected from the group consisting of: pure cobalt, WC-17Co, and Co-18Cr-30Mo.
Apparatus for connecting a connection element to a conductor track of a substrate by welding, wherein the apparatus has: • an abutment for the arrangement of a bottom element which is in the form of a substrate or in the form of a base plate with a substrate located on it, wherein the abutment has a first and a second partial abutment (20, 22), wherein the first partial abutment is a metal shaped body with a modulus of elasticity of between 50 and 300 kN/mm 2, and the second partial abutment is an elastic shaped body with a modulus of elasticity of between 10 and 500 N/mm 2, and wherein the bottom element rests on the second partial abutment; • a holding device which is designed to fix the bottom element on the abutment; • a sonotrode; • a positioning device for positioning the connection element in relation to the substrate in such a way that a contact foot of the connection element rests on a contact point of a conductor track of the substrate and can be connected to said contact point by means of the sonotrode. • an abutment for the arrangement of a bottom element which is in the form of a substrate or in the form of a base plate with a substrate located on it, wherein the abutment has a first and a second partial abutment (20, 22), wherein the first partial abutment is a metal shaped body with a modulus of elasticity of between 50 and 300 kN/mm 2, and the second partial abutment is an elastic shaped body with a modulus of elasticity of between 10 and 500 N/mm 2, and wherein the bottom element rests on the second partial abutment; • a holding device which is designed to fix the bottom element on the abutment; • a sonotrode; • a positioning device for positioning the connection element in relation to the substrate in such a way that a contact foot of the connection element rests on a contact point of a conductor track of the substrate and can be connected to said contact point by means of the sonotrode.
A seabed survey apparatus comprising: a body having a frame and a plurality of legs extending therefrom, distal ends of said legs for engaging the seabed; at least one first detector mounted on said body for gathering first data to be interpreted to give topographical information relating to a surface or a volume below said surface of the seabed adjacent said body; and at least one second detector mounted on said body for gathering second data to be interpreted to give information relating to the metallic content of the seabed adjacent said body, wherein said body is characterized in that it further comprises at least one detector mover for moving the detectors (36, 38) on said frame and said detector mover comprises a beam mounted and movable on said frame, said detectors (36, 38) mounted on said beam. a body having a frame and a plurality of legs extending therefrom, distal ends of said legs for engaging the seabed; at least one first detector mounted on said body for gathering first data to be interpreted to give topographical information relating to a surface or a volume below said surface of the seabed adjacent said body; and at least one second detector mounted on said body for gathering second data to be interpreted to give information relating to the metallic content of the seabed adjacent said body, wherein said body is characterized in that it further comprises at least one detector mover for moving the detectors (36, 38) on said frame and said detector mover comprises a beam mounted and movable on said frame, said detectors (36, 38) mounted on said beam.
A method for producing a compound represented by the following formula: wherein R 4 represents an alkyl group containing 1 to 10 carbon atoms, an aralkyl group containing 7 to 20 carbon atoms or an aryl group containing 6 to 12 carbon atoms, each of which may be optionally substituted, wherein the method comprises a step (i) of allowing a compound represented by the following formula: wherein Z represents a halogen atom or OR 3, wherein R 3 represents an arylsulfonyl group containing 6 to 12 carbon atoms, an alkylsulfonyl group containing 1 to 10 carbon atoms or an aralkylsulfonyl group containing 7 to 20 carbon atoms, each of which may be optionally substituted, to react with a malonic ester in the presence of an alkali metal alkoxide or alkali metal hydride, to produce the compound represented by the formula, wherein, in the step (i), the alkali metal alkoxide or alkali metal hydride is used in an amount of 1.5 equivalents or more with respect to 1 equivalent of the compound represented by the above formula, and the malonic ester is used in an amount of 1 equivalent or more with respect to 1 equivalent of the alkali metal alkoxide or alkali metal hydride.