mhurhangee/ep-ind-claims huggingface dataset:
A system for generating a three-dimensional, 3D, map of part of a field-of-view, FOV, of at least one detector of an active 3D scanner, the system comprising: the active 3D scanner, comprising: a scanning mechanism configured to scan the FOV; at least one energy emitting source configured to emit energy pulses, in synchronization with the scanning mechanism, to cover the FOV; and the at least one detector; and processing circuitry configured to: obtain mapping designation information, wherein at least some of the mapping designation information is tracker-based designation information that is designated by a user of the system via a tracker that tracks a line-of-sight between the user and the FOV; selectively activate the at least one energy emitting source to emit a subset of the energy pulses, in accordance with the mapping designation information, including the tracker-based designation information, and in synchronization with the scanning mechanism, to cover the part of the FOV; obtain current readings, from the at least one detector, based on reflections of the subset of the energy pulses; and generate the 3D map based on the current readings. the active 3D scanner, comprising: a scanning mechanism configured to scan the FOV; at least one energy emitting source configured to emit energy pulses, in synchronization with the scanning mechanism, to cover the FOV; and the at least one detector; and a scanning mechanism configured to scan the FOV; at least one energy emitting source configured to emit energy pulses, in synchronization with the scanning mechanism, to cover the FOV; and the at least one detector; and processing circuitry configured to: obtain mapping designation information, wherein at least some of the mapping designation information is tracker-based designation information that is designated by a user of the system via a tracker that tracks a line-of-sight between the user and the FOV; selectively activate the at least one energy emitting source to emit a subset of the energy pulses, in accordance with the mapping designation information, including the tracker-based designation information, and in synchronization with the scanning mechanism, to cover the part of the FOV; obtain current readings, from the at least one detector, based on reflections of the subset of the energy pulses; and generate the 3D map based on the current readings. obtain mapping designation information, wherein at least some of the mapping designation information is tracker-based designation information that is designated by a user of the system via a tracker that tracks a line-of-sight between the user and the FOV; selectively activate the at least one energy emitting source to emit a subset of the energy pulses, in accordance with the mapping designation information, including the tracker-based designation information, and in synchronization with the scanning mechanism, to cover the part of the FOV; obtain current readings, from the at least one detector, based on reflections of the subset of the energy pulses; and generate the 3D map based on the current readings.
A fibre composite rod fishing tool comprising a ring base with an axis and provided with peripherically arranged, axially extending radially resilient arms with slips with a common axial bore being tapered-off towards a rod receiving aperture opposite of said ring base, characterized by - said common axial bore provided with teeth of common radial cutting depth, - said teeth's engaging edge having the tapering off of the common axial bore, so as for the outer set of teeth's engaging edge to be most blunt, and each consecutive set of teeth's engaging edge extending higher and being sharper inwards toward the common axis, as counted in the direction away from said rod receiving aperture. - said common axial bore provided with teeth of common radial cutting depth, - said teeth's engaging edge having the tapering off of the common axial bore, so as for the outer set of teeth's engaging edge to be most blunt, and each consecutive set of teeth's engaging edge extending higher and being sharper inwards toward the common axis, as counted in the direction away from said rod receiving aperture.
An electronic device (X1, X3, X4) including an operation area and a non-operation area positioned outside the operation area, the electronic device (X1, X3, X4) comprising: an operation unit including a first principal surface to be operated by a user and a second principal surface positioned opposite to the first principal surface; a light shielding film formed on the first principal surface of the operation unit corresponding to the non-operation area; and a vibrator (4, 42) provided on the second principal surface of the operation unit corresponding to the non-operation area, wherein when a critical angle at which light is totally reflected by the second principal surface of the operation unit is represented by θ and sum of a thickness T1 of the operation unit and a thickness T2 of the vibrator (4, 42) is represented by T, the vibrator (4, 42) is provided, on the second principal surface of the operation unit corresponding to the non-operation area, at a position apart by T×tanθ or more from an end of the light shielding film which end is positioned on the operation area side, in sectional view, wherein the vibrator has an opposed surface opposed to the second principal surface of the operation unit; a rear surface positioned opposite to the opposed surface, and four side surfaces adjacent to the opposed surface and the rear surface, and wherein the vibrator has an inclined portion provided between a side surface closest to the operation area among the four side surfaces, and the rear surface. an operation unit including a first principal surface to be operated by a user and a second principal surface positioned opposite to the first principal surface; a light shielding film formed on the first principal surface of the operation unit corresponding to the non-operation area; and a vibrator (4, 42) provided on the second principal surface of the operation unit corresponding to the non-operation area, wherein when a critical angle at which light is totally reflected by the second principal surface of the operation unit is represented by θ and sum of a thickness T1 of the operation unit and a thickness T2 of the vibrator (4, 42) is represented by T, the vibrator (4, 42) is provided, on the second principal surface of the operation unit corresponding to the non-operation area, at a position apart by T×tanθ or more from an end of the light shielding film which end is positioned on the operation area side, in sectional view, wherein the vibrator has an opposed surface opposed to the second principal surface of the operation unit; a rear surface positioned opposite to the opposed surface, and four side surfaces adjacent to the opposed surface and the rear surface, and wherein the vibrator has an inclined portion provided between a side surface closest to the operation area among the four side surfaces, and the rear surface.
A tire comprising an annular tire structural member in which a resin-covered cord, configured by covering a reinforcing cord with a resin, characterized in that the resin includes a protrusion formed on a side face (26C, 26D), and in that said resin covered cord is wound in a spiral shape with the resin at one portion of the resin-covered cord integrally bonded to the resin at another mutually adjacent portion of the resin-covered cord.
A method of monitoring a monitored zone for a violation of the monitored zone comprising the following steps: (a) monitoring the monitored zone for its violation by an object using a first sensor which uses a first detection method; b) checking the current detection capability of a second sensor when the first sensor generates a signal which indicates a violation of the monitored zone, wherein the second sensor is arranged and designed in such a manner to monitor at least a part of the monitored zone monitored by the first sensor, wherein the step of checking the detection capability of the second sensor comprises checking the detection capability of the second sensor at least for the part of the monitored zone in which a violation of the monitored zone is indicated by the first sensor; c) checking whether the second sensor generates a signal which indicates a violation of at least that part of the monitored zone in which the first sensor indicates a violation when the detection capability of the second sensor is classified as sufficient in step b) in the part of the monitored zone in which the first sensor indicates a violation; and d) assuming a violation of the monitored zone when the first and the second sensor (52, 56) each generate a signal which indicates a violation and the detection capability of the second sensor is classified as sufficient in step b) in the part of the monitored zone in which the first sensor indicates a violation. (a) monitoring the monitored zone for its violation by an object using a first sensor which uses a first detection method; b) checking the current detection capability of a second sensor when the first sensor generates a signal which indicates a violation of the monitored zone, wherein the second sensor is arranged and designed in such a manner to monitor at least a part of the monitored zone monitored by the first sensor, wherein the step of checking the detection capability of the second sensor comprises checking the detection capability of the second sensor at least for the part of the monitored zone in which a violation of the monitored zone is indicated by the first sensor; c) checking whether the second sensor generates a signal which indicates a violation of at least that part of the monitored zone in which the first sensor indicates a violation when the detection capability of the second sensor is classified as sufficient in step b) in the part of the monitored zone in which the first sensor indicates a violation; and d) assuming a violation of the monitored zone when the first and the second sensor (52, 56) each generate a signal which indicates a violation and the detection capability of the second sensor is classified as sufficient in step b) in the part of the monitored zone in which the first sensor indicates a violation.
An apparatus for normalizing input soft metric to a channel decoder in a wireless communication system, comprising: a demapper for generating a soft metric per bit for a received modulated symbol; and a normalizer for receiving the soft metric, computing a normalized log likelihood ratio, LLR, by multiplying the soft metric by a normalization coefficient computed using a ratio of a modulation order of the received modulated symbol and a noise variance value of the noise present on the channel over which said received modulated symbol has been received, transforming the normalized LLR into a number of bits, and outputting the transformed LLR as an input LLR of the channel decoder. a demapper for generating a soft metric per bit for a received modulated symbol; and a normalizer for receiving the soft metric, computing a normalized log likelihood ratio, LLR, by multiplying the soft metric by a normalization coefficient computed using a ratio of a modulation order of the received modulated symbol and a noise variance value of the noise present on the channel over which said received modulated symbol has been received, transforming the normalized LLR into a number of bits, and outputting the transformed LLR as an input LLR of the channel decoder.
An orthotic for a foot having a top side and a bottom side as well as a medial side and a lateral side, comprising: a flexion zone (zone 8) in the bottom side of the orthotic located between the medial and the lateral side of the orthotic at a position corresponding to the location between a metatarsal phalangeal joint of the foot to 25mm behind the phalangeal joint, and/or a heel section (zone 7) in the bottom side of the orthotic which is pitched so that the height of the rear of the orthotic is greater than the height of the front of the heel section (zone 7); and further comprising a raised section in the top side of the orthotic located at a position corresponding to the cuboid area of the lateral side of the foot and extending in the anterior direction along one third of the shaft of the fifth metatarsal (zone 2), and/or a fascial groove located at a position corresponding to the area between the medial tubercle of the calcaneus to the insertion point of the medial cuneiform into the base of the first metatarsal (zone 3), wherein the top side of the orthotic further has a raised section located at a position corresponding to the medial side of the calcaneus of the foot (zone 1), and an indentation located at a position corresponding to the base of the first metatarsal of the foot (zone 4). a flexion zone (zone 8) in the bottom side of the orthotic located between the medial and the lateral side of the orthotic at a position corresponding to the location between a metatarsal phalangeal joint of the foot to 25mm behind the phalangeal joint, and/or a heel section (zone 7) in the bottom side of the orthotic which is pitched so that the height of the rear of the orthotic is greater than the height of the front of the heel section (zone 7); and further comprising a raised section in the top side of the orthotic located at a position corresponding to the cuboid area of the lateral side of the foot and extending in the anterior direction along one third of the shaft of the fifth metatarsal (zone 2), and/or a fascial groove located at a position corresponding to the area between the medial tubercle of the calcaneus to the insertion point of the medial cuneiform into the base of the first metatarsal (zone 3), wherein the top side of the orthotic further has a raised section located at a position corresponding to the medial side of the calcaneus of the foot (zone 1), and an indentation located at a position corresponding to the base of the first metatarsal of the foot (zone 4).
A method for manufacturing a composite molded body (11; 13; 25; 35; 41; 51; 61; 71) by forming a tape-like FRP base material (1; 21) into a three-dimensional shape and integrating the FRP base material (1; 21) with a thermoplastic resin composition in a mold for injection molding, comprising the steps of: a first step of introducing the FRP base material (1; 21) into the mold via a slit part provided in the mold, and inserting the FRP base material along a mold cavity; and a second step of injecting a molten thermoplastic resin composition A into the mold cavity to form the FRP base material (1; 21) into a three-dimensional shape and integrate the injected thermoplastic resin composition and the FRP base material (1; 21). a first step of introducing the FRP base material (1; 21) into the mold via a slit part provided in the mold, and inserting the FRP base material along a mold cavity; and a second step of injecting a molten thermoplastic resin composition A into the mold cavity to form the FRP base material (1; 21) into a three-dimensional shape and integrate the injected thermoplastic resin composition and the FRP base material (1; 21).
A pharmaceutical composition for use in prevention or treatment of overactive bladder comprising the compound shown by the following Formula: [Chemical Formula 1] R 1 -NHCH 2 COCH 2 CH 2 COOR 2 (wherein R 1 represents a hydrogen atom or an acyl group, and R 2 represents a hydrogen atom, a linear or branched alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group) or a salt thereof and a compound containing iron. or a salt thereof and a compound containing iron.
An image processing apparatus configured to preview and edit a spherical image presented on an immersive presentation device, the image processing apparatus comprising: an operation detection unit configured to detect an operation input by an operation unit (13, 14); a position-and-orientation detection unit configured to detect the position and orientation of the operation unit in the three-dimensional space; a communication unit configured to acquire, from the immersive presentation device, an image captured in front of the immersive presentation device, and a position and orientation of the immersive presentation device in the three-dimensional space; and a display control unit configured to output, to the immersive presentation device, part or entirety of the spherical image on which an image of the operation unit is superimposed, as a presentation image, to cause the immersive presentation device to display the presentation image, the display control unit being configured to control, in a case where the operation input has been detected, the display of the presentation image such that the operation input is reflected, the display control unit being further configured to display an auxiliary screen for editing the spherical image on the presentation image, wherein the auxiliary screen is displayed at a position on the presentation image defined by a position and orientation of the immersive presentation device, and wherein the display control unit is configured to superimpose an image of the operation unit on the spherical image for presentation at the detected position and orientation of the operation unit. an operation detection unit configured to detect an operation input by an operation unit (13, 14); a position-and-orientation detection unit configured to detect the position and orientation of the operation unit in the three-dimensional space; a communication unit configured to acquire, from the immersive presentation device, an image captured in front of the immersive presentation device, and a position and orientation of the immersive presentation device in the three-dimensional space; and a display control unit configured to output, to the immersive presentation device, part or entirety of the spherical image on which an image of the operation unit is superimposed, as a presentation image, to cause the immersive presentation device to display the presentation image, the display control unit being configured to control, in a case where the operation input has been detected, the display of the presentation image such that the operation input is reflected, the display control unit being further configured to display an auxiliary screen for editing the spherical image on the presentation image, wherein the auxiliary screen is displayed at a position on the presentation image defined by a position and orientation of the immersive presentation device, and wherein the display control unit is configured to superimpose an image of the operation unit on the spherical image for presentation at the detected position and orientation of the operation unit.
Assembly, comprising: a first ceramic body and a second ceramic body, wherein the first ceramic body and the second ceramic body are connected via a joint, wherein the joint features an active brazing solder, wherein the active brazing solder has a continuous core volume, which is at a distance, in each case, of at least 1 μm, particularly at least 2 μm, from the first ceramic body and the second ceramic body, wherein the first ceramic body and/or the second ceramic body feature Al 2 O 3, wherein the joint has a first boundary layer and a second boundary layer, which are adjacent to the first ceramic body or the second ceramic body respectively, characterized in that the core volume, which comprises at least 50% of the volume of the joint, is free from crystalline phases with a size of more than 6 μm, notably of more than 4 μm and preferably of more than 2 μm, wherein the active brazing solder contains Zr, Ni and Ti, wherein the at least one boundary layer has a thickness of not more than 3 μm, notably not more than 2 μm and preferably not more than 1 μm. a first ceramic body and a second ceramic body, wherein the first ceramic body and the second ceramic body are connected via a joint, wherein the joint features an active brazing solder, wherein the active brazing solder has a continuous core volume, which is at a distance, in each case, of at least 1 μm, particularly at least 2 μm, from the first ceramic body and the second ceramic body, wherein the first ceramic body and/or the second ceramic body feature Al 2 O 3, wherein the joint has a first boundary layer and a second boundary layer, which are adjacent to the first ceramic body or the second ceramic body respectively, characterized in that the core volume, which comprises at least 50% of the volume of the joint, is free from crystalline phases with a size of more than 6 μm, notably of more than 4 μm and preferably of more than 2 μm, wherein the active brazing solder contains Zr, Ni and Ti, wherein the at least one boundary layer has a thickness of not more than 3 μm, notably not more than 2 μm and preferably not more than 1 μm.
A composition for taking dental impressions, the composition comprising ∘ a siloxane component comprising terminal vinyl groups, ∘ a silioxane component comprising Si-H groups, ∘ a catalyst being able to catalyze a curing reaction between components and, ∘ a silicone oil, wherein the silicone oil - has a viscosity at 23°C of at least 600,000 mPa*s and - is present in an amount from 1 to 20 wt.-% with respect to the weight of the whole composition. ∘ a siloxane component comprising terminal vinyl groups, ∘ a silioxane component comprising Si-H groups, ∘ a catalyst being able to catalyze a curing reaction between components and, ∘ a silicone oil, - has a viscosity at 23°C of at least 600,000 mPa*s and - is present in an amount from 1 to 20 wt.-% with respect to the weight of the whole composition.
An aqueous cleaning composition having a pH-value of from 5 to 8 comprising (a) at least one fatty acid alkyl ester alkoxylate, (b) at least one alcohol alkoxylate, and (c) at least one amine oxide, (a) at least one fatty acid alkyl ester alkoxylate, (b) at least one alcohol alkoxylate, and (c) at least one amine oxide,