mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus for performing reconstruction processing on projected images of an object obtained by using a radiation source and a detector , characterised in that the image processing apparatus comprises: a selection means configured to select a reconstruction filter to be applied when obtaining a tomographic image of the object by performing the reconstruction processing on the projected images; a setting means configured to set an image processing parameter for noise reduction of the projected images in accordance with the frequency characteristics of the selected reconstruction filter; an image processing means configured to perform image processing on the projected images obtained by multiresolution analysis, using the set image processing parameter for noise reduction; and a reconstruction means configured to obtain a tomographic image of the object by performing reconstruction processing using the selected reconstruction filter on the projected images that have been subjected to the image processing. a selection means configured to select a reconstruction filter to be applied when obtaining a tomographic image of the object by performing the reconstruction processing on the projected images; a setting means configured to set an image processing parameter for noise reduction of the projected images in accordance with the frequency characteristics of the selected reconstruction filter; an image processing means configured to perform image processing on the projected images obtained by multiresolution analysis, using the set image processing parameter for noise reduction; and a reconstruction means configured to obtain a tomographic image of the object by performing reconstruction processing using the selected reconstruction filter on the projected images that have been subjected to the image processing.
Apparatus (1, 1', 1") for transporting a substrate (2, 2a-2d) into or out of a treatment apparatus (3, 3a, 3b, 3', 3"a-3"c), the treatment apparatus (3, 3a, 3b, 3', 3"a-3"c) having a horizontally extending receiving plate (30, 30', 30", 30a-30h) and the apparatus having a substrate carrier (10, 10', 10", 10a-10d, 100) and the substrate carrier (10, 10', 10", 10a-10d, 100) being suitable for positioning the substrate (2, 2a-2d) on a first surface of the receiving plate (30, 30', 30", 30a-30h) and the substrate carrier (10, 10', 10", 10a-10d, 100) being also suitable for holding the substrate (2, 2a-2d) on the receiving plate (30, 30', 30", 30a-30h) during the treatment of the substrate (2, 2a-2d) in the treatment apparatus (3, 3a, 3b, 3', 3"a-3"c), and the substrate carrier (10, 10', 10", 10a-10d, 100) comprising: - a horizontally extending holding area (11, 11', 11", 11a, 11d) that is even and uniform on a first surface facing the substrate (2, 2a-2d), the shape of said holding area (11, 11', 11", 11a, 11d) substantially corresponding to the shape of the substrate (2, 2a-2d) and the area size of said holding area (11, 11', 11", 11a, 11d) being substantially the same as the area size of the substrate (2, 2a-2d), the substrate (2, 2a-2d) being held with its rear side on the holding area (11, 11', 11", 11a, 11d) merely by its weight, and - one or a plurality of gripping arms , characterised in that each of the gripping arms is connected to the holding area (11, 11', 11", 11a, 11d) and extending beyond said holding area (11, 11', 11", 11a, 11d) in a horizontal direction. - a horizontally extending holding area (11, 11', 11", 11a, 11d) that is even and uniform on a first surface facing the substrate (2, 2a-2d), the shape of said holding area (11, 11', 11", 11a, 11d) substantially corresponding to the shape of the substrate (2, 2a-2d) and the area size of said holding area (11, 11', 11", 11a, 11d) being substantially the same as the area size of the substrate (2, 2a-2d), the substrate (2, 2a-2d) being held with its rear side on the holding area (11, 11', 11", 11a, 11d) merely by its weight, and - one or a plurality of gripping arms , characterised in that each of the gripping arms is connected to the holding area (11, 11', 11", 11a, 11d) and extending beyond said holding area (11, 11', 11", 11a, 11d) in a horizontal direction.
A channel detection method, comprising when N downlink bandwidth parts, BWPs, corresponding to a terminal are in an activated state, wherein an nth BWP in the N BWPs is provided with Cn control resource sets and Sn search space sets, determining , by the terminal, K BWPs and/or ∑ Cn ' control resource sets and/or ∑ Sn' search space sets according to a preset rule of a network device, N ≥ 2, 1 ≤ n ≤ N, 0 ≤ K ≤ N, 0 ≤ Cn' ≤ Cn, 0 ≤ Sn' ≤ Sn; and performing , by the terminal, detection on a downlink control channel in the K BWPs and/or the ∑ Cn ' control resource sets and/or the ∑ Sn' search space sets, wherein, the preset rule comprises at least one of: K BWPs with a largest or smallest subcarrier spacing in the N BWPs; K BWPs with a largest or smallest bandwidth in the N BWPs; K BWPs with a largest or smallest frequency domain range of the control resource sets in the N BWPs; all of the control resource sets in the N BWPs comprise ∑ n Cn ′ control resource sets with most or least frequency domain resources; all of the control resource sets of the N BWPs comprise ∑ n Cn ′ control resource sets with a largest or smallest time domain length; and all of the search space sets of the N BWPs comprise ∑ n Sn ′ search space sets with a largest or smallest time domain density. when N downlink bandwidth parts, BWPs, corresponding to a terminal are in an activated state, wherein an nth BWP in the N BWPs is provided with Cn control resource sets and Sn search space sets, determining , by the terminal, K BWPs and/or ∑ Cn ' control resource sets and/or ∑ Sn' search space sets according to a preset rule of a network device, N ≥ 2, 1 ≤ n ≤ N, 0 ≤ K ≤ N, 0 ≤ Cn' ≤ Cn, 0 ≤ Sn' ≤ Sn; and performing , by the terminal, detection on a downlink control channel in the K BWPs and/or the ∑ Cn ' control resource sets and/or the ∑ Sn' search space sets, wherein, the preset rule comprises at least one of: K BWPs with a largest or smallest subcarrier spacing in the N BWPs; K BWPs with a largest or smallest bandwidth in the N BWPs; K BWPs with a largest or smallest frequency domain range of the control resource sets in the N BWPs; all of the control resource sets in the N BWPs comprise ∑ n Cn ′ control resource sets with most or least frequency domain resources; all of the control resource sets of the N BWPs comprise ∑ n Cn ′ control resource sets with a largest or smallest time domain length; and all of the search space sets of the N BWPs comprise ∑ n Sn ′ search space sets with a largest or smallest time domain density. K BWPs with a largest or smallest subcarrier spacing in the N BWPs; K BWPs with a largest or smallest bandwidth in the N BWPs; K BWPs with a largest or smallest frequency domain range of the control resource sets in the N BWPs; all of the control resource sets in the N BWPs comprise ∑ n Cn ′ control resource sets with most or least frequency domain resources; all of the control resource sets of the N BWPs comprise ∑ n Cn ′ control resource sets with a largest or smallest time domain length; and all of the search space sets of the N BWPs comprise ∑ n Sn ′ search space sets with a largest or smallest time domain density.
An optical lens assembly (100-1; 100-2) comprising: a first lens (L11; L12) having a convex object-side surface ; a second lens (L21; L22) having a convex object-side surface, which is at an image side (I) of the first lens (L11; L12) without intervening another lens; at least one lens at an image side (I) of the second lens (L21; L22); a first stop (ST11; ST12) being a variable stop at an object side (O) of the first lens (L11; L12); and a second stop (ST21; ST22) between an image side (I) of the first stop and the at least one lens at the image side (I) of the second lens (L21; L22), wherein the second stop (ST21; ST22) determines a minimum F number, and the first stop (ST11; ST12) is variable to determine an F number greater than the minimum F number, wherein the first lens (L11; L12) is closest to the object side (O) and has a positive refractive power, wherein the optical lens assembly (100-1; 100-2) satisfies the following conditions: <Conditions> d 2 sag 1 ≤ 0.9 0.2 ≤ R 1 f ≤ 0.8 0.4 < f f 2 < 1.6 where sag1 denotes a sag value of the object-side surface of the first lens (L11; L12) measured based on an effective diameter at the minimum F number, d2 denotes a distance measured from a vertex of the object-side surface of the first lens (L11; L12) to the first stop (ST11; ST12) along an optical axis (OA), R1 denotes a radius of curvature of the object-side surface of the first lens (L11; L12), f denotes a total focal length of the optical lens assembly (100-1; 100-2) and f2 denotes a focal length of the second lens (L21; L22). a first lens (L11; L12) having a convex object-side surface ; a second lens (L21; L22) having a convex object-side surface, which is at an image side (I) of the first lens (L11; L12) without intervening another lens; at least one lens at an image side (I) of the second lens (L21; L22); a first stop (ST11; ST12) being a variable stop at an object side (O) of the first lens (L11; L12); and a second stop (ST21; ST22) between an image side (I) of the first stop and the at least one lens at the image side (I) of the second lens (L21; L22), wherein the second stop (ST21; ST22) determines a minimum F number, and the first stop (ST11; ST12) is variable to determine an F number greater than the minimum F number, wherein the first lens (L11; L12) is closest to the object side (O) and has a positive refractive power, wherein the optical lens assembly (100-1; 100-2) satisfies the following conditions: <Conditions> d 2 sag 1 ≤ 0.9 0.2 ≤ R 1 f ≤ 0.8 0.4 < f f 2 < 1.6 where sag1 denotes a sag value of the object-side surface of the first lens (L11; L12) measured based on an effective diameter at the minimum F number, d2 denotes a distance measured from a vertex of the object-side surface of the first lens (L11; L12) to the first stop (ST11; ST12) along an optical axis (OA), R1 denotes a radius of curvature of the object-side surface of the first lens (L11; L12), f denotes a total focal length of the optical lens assembly (100-1; 100-2) and f2 denotes a focal length of the second lens (L21; L22).
A control apparatus configured to operate as a master device for controlling a slave device , comprising: image capturing means ; registration means configured to register slave device information of a slave device to be controlled by the control apparatus; identification means configured to, based on the slave device information registered by the registration means, identify a slave device that exists in a range of image capturing by the image capturing means; and a slave device control means configured to perform control of a slave device that has been identified by the identification means, characterized in that the registration means is configured to, after a slave device to be registered is caused to be approximately in the center of the range of image capturing by the image capturing means , execute a registration process and register, as the slave device information, information on a relative direction and inclination of the slave device with respect to a position of the image capturing means at the time of execution of the registration process, and the identification means is configured to identify the slave device by comparing the registered information on the relative direction and inclination of the slave device with respect to the position of the image capturing means with information on a relative direction of the four vertices of the range of image capturing by the image capturing means . image capturing means ; registration means configured to register slave device information of a slave device to be controlled by the control apparatus; identification means configured to, based on the slave device information registered by the registration means, identify a slave device that exists in a range of image capturing by the image capturing means; and a slave device control means configured to perform control of a slave device that has been identified by the identification means, characterized in that the registration means is configured to, after a slave device to be registered is caused to be approximately in the center of the range of image capturing by the image capturing means , execute a registration process and register, as the slave device information, information on a relative direction and inclination of the slave device with respect to a position of the image capturing means at the time of execution of the registration process, and the identification means is configured to identify the slave device by comparing the registered information on the relative direction and inclination of the slave device with respect to the position of the image capturing means with information on a relative direction of the four vertices of the range of image capturing by the image capturing means .
A nonadhesive composition comprising: a rubber component or a resin; and 0.05 to 10 parts by mass of a fluorine-containing copolymer per 100 parts by mass of the rubber component or the resin, wherein the fluorine-containing copolymer is a copolymer of a fluoroalkyl alcohol (meth)acrylic acid derivative represented by C n F 2n+1 (CH 2 CF 2 ) a (CF 2 CF 2 ) b (CH 2 CH 2 ) c OCOCR 1 =CH 2 , wherein R 1 represents a hydrogen atom or a methyl group, n represents an integer of 1 to 6, a represents an integer of 1 to 4, b represents an integer of 1 to 3, and c represents an integer of 1 to 3, and of a (meth)acrylic acid ester represented by R 2 OCOCR 1 =CH 2 , wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, an alkoxyalkyl group, a cycloalkyl group, an aryl group, or an aralkyl group; a monoalkyl ester or dialkyl ester of fumaric acid; or a monoalkyl ester or dialkyl ester of maleic acid. a rubber component or a resin; and 0.05 to 10 parts by mass of a fluorine-containing copolymer per 100 parts by mass of the rubber component or the resin, wherein the fluorine-containing copolymer is a copolymer of a fluoroalkyl alcohol (meth)acrylic acid derivative represented by C n F 2n+1 (CH 2 CF 2 ) a (CF 2 CF 2 ) b (CH 2 CH 2 ) c OCOCR 1 =CH 2 , wherein R 1 represents a hydrogen atom or a methyl group, n represents an integer of 1 to 6, a represents an integer of 1 to 4, b represents an integer of 1 to 3, and c represents an integer of 1 to 3, and of a (meth)acrylic acid ester represented by R 2 OCOCR 1 =CH 2 , wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, an alkoxyalkyl group, a cycloalkyl group, an aryl group, or an aralkyl group; a monoalkyl ester or dialkyl ester of fumaric acid; or a monoalkyl ester or dialkyl ester of maleic acid.
A turbine rotor blade , comprising: an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges ; a shank at a radial inner end of the airfoil body; at least one angel wing extending laterally from at least one side of the shank; and a coolant transfer passage defined through the at least one angel wing extending laterally from the at least one side of the shank, the coolant transfer passage arranged to fluidly couple, in situ, a first wheel space portion defined between the shank and a first adjacent shank of a first adjacent turbine rotor blade and a second wheel space portion defined between the shank and a second adjacent shank of a second adjacent turbine rotor blade . an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges ; a shank at a radial inner end of the airfoil body; at least one angel wing extending laterally from at least one side of the shank; and a coolant transfer passage defined through the at least one angel wing extending laterally from the at least one side of the shank, the coolant transfer passage arranged to fluidly couple, in situ, a first wheel space portion defined between the shank and a first adjacent shank of a first adjacent turbine rotor blade and a second wheel space portion defined between the shank and a second adjacent shank of a second adjacent turbine rotor blade .
A medical device for acquiring images by being inserted into a body lumen, the device comprising: a shaft main body portion which is formed to have a double-lumen structure of having an image acquiring lumen for acquiring images and a guide wire lumen for a guide wire that are formed from a distal side to a proximal side of the shaft main body portion, and in which, in a proximal portion thereof, a first shaft proximal portion, in which the image acquiring lumen is disposed, and a second shaft proximal portion, in which the guide wire lumen is disposed, are bifurcated; a shaft distal portion in which a common lumen structure, in which the image acquiring lumen and the guide wire lumen converge, is formed in a distal portion; a hub that is provided with a first hub portion which is interlocked with the first shaft proximal portion and a second hub portion which is interlocked with the second shaft proximal portion; a drive shaft that is movable in a rotating direction and an axial direction in the image acquiring lumen; and an imaging unit that is fixed to a distal end of the drive shaft and is capable of acquiring image information, wherein, in a case where an axis line of the shaft main body portion is set as a reference line, θ1 represents inclination of a central axis of the first hub portion with respect to the reference line, and θ2 represents inclination of a central axis of the second hub portion with respect to the reference line, a relationship of |θ1| > |θ2| is satisfied. a shaft main body portion which is formed to have a double-lumen structure of having an image acquiring lumen for acquiring images and a guide wire lumen for a guide wire that are formed from a distal side to a proximal side of the shaft main body portion, and in which, in a proximal portion thereof, a first shaft proximal portion, in which the image acquiring lumen is disposed, and a second shaft proximal portion, in which the guide wire lumen is disposed, are bifurcated; a shaft distal portion in which a common lumen structure, in which the image acquiring lumen and the guide wire lumen converge, is formed in a distal portion; a hub that is provided with a first hub portion which is interlocked with the first shaft proximal portion and a second hub portion which is interlocked with the second shaft proximal portion; a drive shaft that is movable in a rotating direction and an axial direction in the image acquiring lumen; and an imaging unit that is fixed to a distal end of the drive shaft and is capable of acquiring image information, wherein, in a case where an axis line of the shaft main body portion is set as a reference line, θ1 represents inclination of a central axis of the first hub portion with respect to the reference line, and θ2 represents inclination of a central axis of the second hub portion with respect to the reference line, a relationship of |θ1| > |θ2| is satisfied.
A method for centralized controlled association of a mobile station , STA, to a wireless access point , AP, in a wireless multi-hop network with a plurality of wireless access points and at least one gateway to a wired network, the method comprising the steps: a) gathering information by a monitoring and control server of a central control entity about existing connectivity and/or interference of mobile stations in the wireless network, wherein the central control entity comprises the monitoring and control sever and a flow processing server ; b1) deciding by said monitoring and control sever on the basis of the gathered information which mobile station should associate to which wireless access point and b2) in case the wireless access point is a wireless access point in the multi-hop wireless network, centralized controlled routing data traffic between the associated mobile station to the at least one gateway ; c) calculating by the central entity the connectivity and/or interference of the associated mobile stations within the wireless network; and d) wherein said monitoring and control server calculates how the association of mobile stations and routing of data traffic in the network should be reconfigured and generates a corresponding reconfiguration signal which is transmitted to or requested by the flow processing server . a) gathering information by a monitoring and control server of a central control entity about existing connectivity and/or interference of mobile stations in the wireless network, wherein the central control entity comprises the monitoring and control sever and a flow processing server ; b1) deciding by said monitoring and control sever on the basis of the gathered information which mobile station should associate to which wireless access point and b2) in case the wireless access point is a wireless access point in the multi-hop wireless network, centralized controlled routing data traffic between the associated mobile station to the at least one gateway ; c) calculating by the central entity the connectivity and/or interference of the associated mobile stations within the wireless network; and d) wherein said monitoring and control server calculates how the association of mobile stations and routing of data traffic in the network should be reconfigured and generates a corresponding reconfiguration signal which is transmitted to or requested by the flow processing server .
A conveyance element for a conveyor , in particular for a people conveyor such as a moving walkway , the conveyance element being configured for being moved in a conveying direction and comprising: a body including or supporting a tread plate for supporting passengers; and at least one slider bracket mounted to the body and comprising a slider slot configured for slidably accommodating a slider ; wherein the at least one slider bracket is manufactured separately from the body . a body including or supporting a tread plate for supporting passengers; and at least one slider bracket mounted to the body and comprising a slider slot configured for slidably accommodating a slider ; wherein the at least one slider bracket is manufactured separately from the body .