mhurhangee/ep-ind-claims huggingface dataset:
A contact lens product, comprising: a multifocal contact lens, comprising: a central region; and at least two annular regions (212, 213) surrounding the central region, wherein a diopter of each of the annular regions (212, 213) is different from a diopter of the central region, and each of the annular regions (212, 213) comprises a maximal diopter; wherein the multifocal contact lens is made of silicone hydrogel or hydrogel; and a buffer solution comprising a cycloplegic agent, wherein the multifocal contact lens is immersed in the buffer solution; wherein each of the annular regions (212, 213) comprises an absolute value of a slope, a maximum of all the absolute values of the slopes is SloPMax, a minimum of all the absolute values of the slopes is SloPMin, a maximum of all the maximal diopters of the annular regions (212, 213) is PowPMax, and the following conditions are satisfied: 0 < SloPMin/SloPMax ≤ 0.31; 4.33 D/mm ≤ SloPMax ≤ 20 D/mm; and 6.50 D ≤ PowPMax ≤ 20 D. a central region; and at least two annular regions (212, 213) surrounding the central region, wherein a diopter of each of the annular regions (212, 213) is different from a diopter of the central region, and each of the annular regions (212, 213) comprises a maximal diopter; wherein the multifocal contact lens is made of silicone hydrogel or hydrogel; and a buffer solution comprising a cycloplegic agent, wherein the multifocal contact lens is immersed in the buffer solution; wherein each of the annular regions (212, 213) comprises an absolute value of a slope, a maximum of all the absolute values of the slopes is SloPMax, a minimum of all the absolute values of the slopes is SloPMin, a maximum of all the maximal diopters of the annular regions (212, 213) is PowPMax, and the following conditions are satisfied: 0 < SloPMin/SloPMax ≤ 0.31; 4.33 D/mm ≤ SloPMax ≤ 20 D/mm; and 6.50 D ≤ PowPMax ≤ 20 D.
An information processing program which is executed by a computer of an information processing apparatus for displaying an image of a predetermined object in a virtual space taken by a virtual camera, the information processing program causing the computer to function as: determination coordinate setting means for setting at least one determination coordinate near the virtual camera; dummy camera placing means for placing at least one dummy camera object at a position indicated by the determination coordinate; collision determination means (S2, S3) for determining, for the virtual camera and the at least one dummy camera, whether or not at least one of the virtual camera and the at least one dummy camera are in a collision state with an obstacle object which is an object other than the predetermined object; and detouring means (S4, S7) for, when the collision determination means (S2, S3) has determined that at least one of the virtual camera and the at least one dummy camera are in a collision state with the obstacle object, moving the virtual camera upwards by rotating the virtual camera around the predetermined object to an avoidance position, wherein the avoidance position is a position that causes the obstacle object not to be included in an imaging range of the virtual camera. determination coordinate setting means for setting at least one determination coordinate near the virtual camera; dummy camera placing means for placing at least one dummy camera object at a position indicated by the determination coordinate; collision determination means (S2, S3) for determining, for the virtual camera and the at least one dummy camera, whether or not at least one of the virtual camera and the at least one dummy camera are in a collision state with an obstacle object which is an object other than the predetermined object; and detouring means (S4, S7) for, when the collision determination means (S2, S3) has determined that at least one of the virtual camera and the at least one dummy camera are in a collision state with the obstacle object, moving the virtual camera upwards by rotating the virtual camera around the predetermined object to an avoidance position, wherein the avoidance position is a position that causes the obstacle object not to be included in an imaging range of the virtual camera.
A method of low-latency wireless communication performed by a user equipment, UE, comprising: identifying a collision between a first resource for a downlink semi-persistently scheduled, SPS, communication and a second resource for another downlink signal; determining an action, to be performed by a base station, to mitigate the collision based at least in part on identifying the collision, wherein the action comprises moving a demodulation reference signal of the downlink SPS communication to a third resource, wherein the third resource is a next sequential resource that does not overlap the second resource; and selectively receiving the downlink SPS communication based at least in part on the determination. identifying a collision between a first resource for a downlink semi-persistently scheduled, SPS, communication and a second resource for another downlink signal; determining an action, to be performed by a base station, to mitigate the collision based at least in part on identifying the collision, wherein the action comprises moving a demodulation reference signal of the downlink SPS communication to a third resource, wherein the third resource is a next sequential resource that does not overlap the second resource; and selectively receiving the downlink SPS communication based at least in part on the determination.
A method of making a lithographic printing plate comprising the steps of: a) image-wise exposing a lithographic printing plate precursor, the printing plate precursor comprising a hydrophilic support and a coating comprising a colorant precursor provided thereon, thereby forming a lithographic image consisting of printing areas and non-printing areas; and b) developing the plate precursor, thereby removing the coating in the non-printing areas from the support; and c) drying the plate precursor; and d) subjecting the lithographic plate to heat or radiation, thereby inducing a colour change of the coating in the printing areas; wherein - before step b) the coating in the non-printing areas and the support are characterised by a CIE 1976 colour difference ΔE 1 which is 5.0 or less; - after step d) the CIE 1976 colour difference ΔE 2 between the coating in the printing areas and the support revealed by the development, is more than 6.8. a) image-wise exposing a lithographic printing plate precursor, the printing plate precursor comprising a hydrophilic support and a coating comprising a colorant precursor provided thereon, thereby forming a lithographic image consisting of printing areas and non-printing areas; and b) developing the plate precursor, thereby removing the coating in the non-printing areas from the support; and c) drying the plate precursor; and d) subjecting the lithographic plate to heat or radiation, thereby inducing a colour change of the coating in the printing areas; - before step b) the coating in the non-printing areas and the support are characterised by a CIE 1976 colour difference ΔE 1 which is 5.0 or less; - after step d) the CIE 1976 colour difference ΔE 2 between the coating in the printing areas and the support revealed by the development, is more than 6.8.
A method for manufacturing a sputtering target assembly comprising the steps of: providing a powder layer (24; 32) having a first and second surface; providing a backing plate (22; 34) having a first and second surface (38, 36); providing a compression means (26, 28; 40, 44) having an upper portion surface (29; 46) and a lower portion surface; wherein at least one of the first surface of the backing plate (22; 34), the second surface of the backing plate (22; 34), the surface (29; 46) of the upper portion (26; 44) of the compression means, and the surface of the lower portion (28; 40) of the compression means, is non-planar; positioning the first surface of the backing plate (22; 34) against the lower portion surface of the compression means; positioning the first surface of the powder layer (24; 32) against the second surface of the backing plate (22; 34); positioning the upper portion surface (29; 46) of the compression means against the second surface of the powder layer (24; 32) to a non-planar orientation; compressing the powder and backing plate (22; 34) to press the powder to a density of at least about 95%; and substantially simultaneously diffusion-bonding the powder to the backing plate (22; 34) to achieve a target assembly. providing a powder layer (24; 32) having a first and second surface; providing a backing plate (22; 34) having a first and second surface (38, 36); providing a compression means (26, 28; 40, 44) having an upper portion surface (29; 46) and a lower portion surface; wherein at least one of the first surface of the backing plate (22; 34), the second surface of the backing plate (22; 34), the surface (29; 46) of the upper portion (26; 44) of the compression means, and the surface of the lower portion (28; 40) of the compression means, is non-planar; positioning the first surface of the backing plate (22; 34) against the lower portion surface of the compression means; positioning the first surface of the powder layer (24; 32) against the second surface of the backing plate (22; 34); positioning the upper portion surface (29; 46) of the compression means against the second surface of the powder layer (24; 32) to a non-planar orientation; compressing the powder and backing plate (22; 34) to press the powder to a density of at least about 95%; and substantially simultaneously diffusion-bonding the powder to the backing plate (22; 34) to achieve a target assembly.
A method for combining two source images in a relief image with structural elements having at least two principle surface orientations (3,4), such that a first image is observed in a first viewing direction and a second image is observed in a second viewing direction, the method reducing a ghosting effect and comprising the steps of: a) printing a test relief image comprising patches with structural elements having a first basic colour on a surface with a first principle orientation and a second basic colour on a surface with a second principle orientation, a basic colour being a colour having a predefined amount of colorant; b) measuring for each patch a first observed colour in a first viewing direction and a second observed colour in a second viewing direction; c) scaling a first source image and a second source image such that each image element of the first source image and of the second source image has a size corresponding to a structural element in the relief image; d) selecting for each position in the relief image a structural element from a patch in the test relief image, wherefor a sum of a colour difference between an image element of the scaled first source image and a first observed colour of the structural element and a colour difference between an image element of the scaled second source image and a second observed colour of the structual element becomes minimal, and e) composing a relief image from the selected structural elements. a) printing a test relief image comprising patches with structural elements having a first basic colour on a surface with a first principle orientation and a second basic colour on a surface with a second principle orientation, a basic colour being a colour having a predefined amount of colorant; b) measuring for each patch a first observed colour in a first viewing direction and a second observed colour in a second viewing direction; c) scaling a first source image and a second source image such that each image element of the first source image and of the second source image has a size corresponding to a structural element in the relief image; d) selecting for each position in the relief image a structural element from a patch in the test relief image, wherefor a sum of a colour difference between an image element of the scaled first source image and a first observed colour of the structural element and a colour difference between an image element of the scaled second source image and a second observed colour of the structual element becomes minimal, and e) composing a relief image from the selected structural elements.
Front-facing upper cross-member for a motor vehicle intended to extend horizontally in front of said vehicle and comprising at least one attachment interface (23, 24, 25) for impact sensor, the at least one attachment interface (23, 24, 25) comprising: a nut installed at the level of an orifice provided in a wall (29, 30, 31) of said cross-member so as to allow bolting of said shock sensor, and an oblong pre-positioning and indexing hole fitted on said local wall of said nut and designed to receive a protuberance of complementary shape arranged on this same shock sensor; characterised in that said crosspiece comprises a first said attachment interface arranged in its central part and second and third said attachment interfaces (24, 25) arranged respectively at each of its two lateral ends. a nut installed at the level of an orifice provided in a wall (29, 30, 31) of said cross-member so as to allow bolting of said shock sensor, and an oblong pre-positioning and indexing hole fitted on said local wall of said nut and designed to receive a protuberance of complementary shape arranged on this same shock sensor; characterised in that said crosspiece comprises a first said attachment interface arranged in its central part and second and third said attachment interfaces (24, 25) arranged respectively at each of its two lateral ends.
A thrust gas bearing, comprising: a collar portion fixed to a shaft portion; a first base part facing one axial end surface of the collar portion; a first gas film forming part formed between the collar portion and the first base part; a second base part facing another axial end surface of the collar portion; a second gas film forming part formed between the collar portion and the second base part; and a cooling flow path through which a fluid flows, the cooling flow path including: a first flow path formed on one end side, in an axial direction, of the first base part and extending from an axial center toward an outer periphery of the first base part; and a second flow path, characterized in that the second flow path is formed on the other end side, in the axial direction, of the second base part and and extends from an outer periphery toward an axial center of the second base part, and in that the second flow path being located downstream of the first flow path. a collar portion fixed to a shaft portion; a first base part facing one axial end surface of the collar portion; a first gas film forming part formed between the collar portion and the first base part; a second base part facing another axial end surface of the collar portion; a second gas film forming part formed between the collar portion and the second base part; and a cooling flow path through which a fluid flows, the cooling flow path including: a first flow path formed on one end side, in an axial direction, of the first base part and extending from an axial center toward an outer periphery of the first base part; and a second flow path, characterized in that the second flow path is formed on the other end side, in the axial direction, of the second base part and and extends from an outer periphery toward an axial center of the second base part, and in that the second flow path being located downstream of the first flow path. a first flow path formed on one end side, in an axial direction, of the first base part and extending from an axial center toward an outer periphery of the first base part; and a second flow path, characterized in that the second flow path is formed on the other end side, in the axial direction, of the second base part and and extends from an outer periphery toward an axial center of the second base part, and in that the second flow path being located downstream of the first flow path.
A computer-implemented method of generating concept units from user search queries, the method comprising: receiving a plurality of queries, each query comprising a string of one or more words; tokenizing each query string to produce one or more tokens for each query, wherein said tokens for said queries form an initial set of units; combining units from the initial set of units that appear adjacent each other in a query to form a second set of units; validating the second set of units; repeating the steps of combining and validating one or more times using the second set of units in place of the initial set of units until a convergence condition is satisfied, wherein a final set of units is formed once the convergence condition has been satisfied; and storing the final set of units to a memory; wherein the second set of units comprises a plurality of units, and wherein validating the second set of units comprises: detecting (a) how often each of the plurality of the units appears by itself separate from others of the plurality of units; detecting (b) how often two or more of the plurality of units appear next to each other across an entire set of queries; and comparing a result of (a) with a result of (b). receiving a plurality of queries, each query comprising a string of one or more words; tokenizing each query string to produce one or more tokens for each query, wherein said tokens for said queries form an initial set of units; combining units from the initial set of units that appear adjacent each other in a query to form a second set of units; validating the second set of units; repeating the steps of combining and validating one or more times using the second set of units in place of the initial set of units until a convergence condition is satisfied, wherein a final set of units is formed once the convergence condition has been satisfied; and storing the final set of units to a memory; wherein the second set of units comprises a plurality of units, and wherein validating the second set of units comprises: detecting (a) how often each of the plurality of the units appears by itself separate from others of the plurality of units; detecting (b) how often two or more of the plurality of units appear next to each other across an entire set of queries; and comparing a result of (a) with a result of (b). detecting (a) how often each of the plurality of the units appears by itself separate from others of the plurality of units; detecting (b) how often two or more of the plurality of units appear next to each other across an entire set of queries; and comparing a result of (a) with a result of (b).
Improved device for tracked wheel with magnetic band where a magnet is accommodated in a cavity of said device, whereby the device is made of a plastic material and comprises edges that are perpendicular to the direction of movement of the magnetic band and the cavity is deep enough to completely accommodate the magnet, characterized in that said magnet is attached to the device and the device to the magnetic band by means of an attaching element, leaving a gap between the upper surfaces of the magnet and the attaching element thereof and the upper surface of the device, in such a way that the magnet and attaching element cannot come into contact with a metal surface on which the device moves, and in that at least the edges of the device that are perpendicular to the direction of movement of the magnetic band are provided with rounded edges.
Valve and actuator assembly comprising a valve, a valve actuator and a connecting device (27, 29), the connecting device comprising at least two male connecting members and at least two female connecting members and being configured for mounting of the actuator in at least two different positions relative to the valve, characterized in that the valve and actuator assembly further comprises: a coding element on one of the valve or valve actuator, the position of which is selectively presettable in at least two different coding element positions, and at least a first cavity on the other one of the valve or valve actuator, configured for receiving the coding element, wherein the valve and actuator assembly is configured for, when the coding element has been preset in one of said at least two coding element positions, mounting of the valve actuator in one and only one position relative to the valve, which position corresponds to the preset coding element position.
Method for obtaining information (Info) for operating an accumulator (30', 30", 30"'), wherein the accumulator is configured to supply drive energy to an electrically powered gardening and/or forestry apparatus (20a, 20b), the method comprising the steps: - a) obtaining an employment of the electrically powered gardening and/or forestry apparatus (20a, 20b), - b) obtaining an energy demand of the gardening and/or forestry apparatus from the obtained employment, - c) obtaining an energy content of the accumulator (30', 30", 30"'), - d) comparing the obtained energy demand to the obtained energy content, and - e) obtaining and outputting the information (Info) for operating the accumulator based on the comparison, characterized in that the step e) comprises: - obtaining a quantity of energy for charging the accumulator (30', 30", 30'") to meet the obtained energy demand, and - obtaining and outputting the information (Info) for operating the accumulator based on the obtained quantity of energy. - a) obtaining an employment of the electrically powered gardening and/or forestry apparatus (20a, 20b), - b) obtaining an energy demand of the gardening and/or forestry apparatus from the obtained employment, - c) obtaining an energy content of the accumulator (30', 30", 30"'), - d) comparing the obtained energy demand to the obtained energy content, and - e) obtaining and outputting the information (Info) for operating the accumulator based on the comparison, - obtaining a quantity of energy for charging the accumulator (30', 30", 30'") to meet the obtained energy demand, and - obtaining and outputting the information (Info) for operating the accumulator based on the obtained quantity of energy.