mhurhangee/ep-ind-claims huggingface dataset:
A photodiode array for a computed tomography comprising a semiconductor substrate having: a plurality of pn junction type photodiodes formed in an array on a light incidence side of the semiconductor substrate, a plurality of through-holes, each including: a perpendicular hole portion formed at an angle in the range of 85 through 90 degrees to the incidence surface on the incidence surface side, and a tapered hole portion formed on a surface opposite the incidence surface, wherein the tapered hole portion tapers inwards from the opposite surface towards the incidence surface and is connected to the perpendicular hole portion; a first conduction type high impurity concentration layer for surrounding the through-hole; and a conductor layer formed in the through hole from the incidence surface to the opposite surface. a plurality of pn junction type photodiodes formed in an array on a light incidence side of the semiconductor substrate, a plurality of through-holes, each including: a perpendicular hole portion formed at an angle in the range of 85 through 90 degrees to the incidence surface on the incidence surface side, and a tapered hole portion formed on a surface opposite the incidence surface, wherein the tapered hole portion tapers inwards from the opposite surface towards the incidence surface and is connected to the perpendicular hole portion; a perpendicular hole portion formed at an angle in the range of 85 through 90 degrees to the incidence surface on the incidence surface side, and a tapered hole portion formed on a surface opposite the incidence surface, wherein the tapered hole portion tapers inwards from the opposite surface towards the incidence surface and is connected to the perpendicular hole portion; a first conduction type high impurity concentration layer for surrounding the through-hole; and a conductor layer formed in the through hole from the incidence surface to the opposite surface.
A system for wireless measuring of the temperature of an object to be measured (2, 321, 331, 341), comprising: - at least one scanning unit (4, 13) for producing HF signals, - at least one scanning antenna (5, 14) for sending HF signals, which can be positioned in the proximity of the measuring object (2, 321, 331, 341), - at least one passively operated temperature probe (6, 7, 15) having a probe antenna and at least one temperature sensor formed as a resonator, wherein the probe antenna is designed to forward the HF signals to the temperature sensor, wherein the temperature probe (6, 7, 15) can be positioned in the proximity of the measuring object (2, 321, 331, 341), and - an evaluation unit, wherein the temperature sensor comprises at least a first resonant element and a second resonant element, wherein the resonant elements are formed as surface wave resonators or as volume wave resonators, and wherein the evaluation unit is designed to determine the temperature of the measuring object (2, 321, 331, 341) from the difference of the resonant frequency of the first resonant element and the resonant frequency of the second resonant element, characterized in that the first resonant element and the second resonant element are formed such that at 20°C the dynamic resistance, the dynamic inductance and the dynamic capacitance of the first resonant element differ, in each case, by less than 20% from the dynamic resistance, the dynamic inductance and the dynamic capacitance of the second resonant element. - at least one scanning unit (4, 13) for producing HF signals, - at least one scanning antenna (5, 14) for sending HF signals, which can be positioned in the proximity of the measuring object (2, 321, 331, 341), - at least one passively operated temperature probe (6, 7, 15) having a probe antenna and at least one temperature sensor formed as a resonator, wherein the probe antenna is designed to forward the HF signals to the temperature sensor, wherein the temperature probe (6, 7, 15) can be positioned in the proximity of the measuring object (2, 321, 331, 341), and - an evaluation unit, wherein the temperature sensor comprises at least a first resonant element and a second resonant element, wherein the resonant elements are formed as surface wave resonators or as volume wave resonators, and wherein the evaluation unit is designed to determine the temperature of the measuring object (2, 321, 331, 341) from the difference of the resonant frequency of the first resonant element and the resonant frequency of the second resonant element, characterized in that the first resonant element and the second resonant element are formed such that at 20°C the dynamic resistance, the dynamic inductance and the dynamic capacitance of the first resonant element differ, in each case, by less than 20% from the dynamic resistance, the dynamic inductance and the dynamic capacitance of the second resonant element.
An adapter (1; 2) comprising: a male member; an arm (20; 220) that faces the male member; and a claw (30; 230) that is provided on the arm so as to protrude toward the male member, wherein the adapter is configured to be connected to a female connector with the male member being inserted into the female connector and the claw engaging with the female connector, the arm is elastically deformable so that the claw can move away from the male member, the claw includes a slidable portion (33a; 233a)that slides on the female connector during a process in which the adapter is connected to the female connector, the slidable portion is configured to move the claw away from the male member while the slidable portion slides on the female connector, and a contour shape of the slidable portion seen in a direction that is orthogonal to a central axis (1a; 2a) that passes through the male member includes a smooth convex curve; characterised in that the slidable portion is provided on a rib (33; 233) that extends along a plane that includes the central axis, or along a plane that is parallel with a plane that includes the central axis.
A turbine stage with a gas channel, in which at least a rotor blade row, a cavity, which is connected to the gas channel and which is constrained by a front side of a rotor element and a sealing (3A, 3B) attached to the rotor element, and a discharge assembly with at least a gas passage, which is a through hole of a conduit, for discharging a stream of sealing gas into this cavity, are positioned, wherein the gas passage for discharging the stream of sealing gas is configured with a spin in the peripheral direction and is provided with an outlet opening, which is radially offset towards the outside with respect to the sealing, which is attached to the rotor element, characterized by a sealing mount attached to the rotor element, on which the sealing and the conduit are positioned.
A method for a first electronic device comprising a touch screen, the method comprising: transmitting information for distinguishing touch inputs to a second electronic device, wherein the information for distinguishing touch inputs comprises associations between capacitance ranges and touch inputs; detecting a change in capacity at a point on the touch screen; identifying a touch input that is not associated with a second electronic device, when the change in capacity corresponds to a first range; and identifying a touch input that is associated with the second electronic device, when the change in capacity corresponds to a second range. transmitting information for distinguishing touch inputs to a second electronic device, wherein the information for distinguishing touch inputs comprises associations between capacitance ranges and touch inputs; detecting a change in capacity at a point on the touch screen; identifying a touch input that is not associated with a second electronic device, when the change in capacity corresponds to a first range; and identifying a touch input that is associated with the second electronic device, when the change in capacity corresponds to a second range.
A collision detection device made up of a housing comprising a first module that is a camera module, preferably analog, and a second detection module based on any collision detection technology and an electric supply block, said housing forming a metal enclosure protecting the inside of the housing from electromagnetic interference coming from the outside, the camera module further being placed in its own metal enclosure inside said housing in order to protect it from internal electromagnetic interference, said electric supply block being separated from the second module by the metal enclosure of the camera module forming a screen between the electric supply block and the second detection module so as to limit the noises and the interference of the electric supply block on the second detection module, and, optionally, by one or several metal wall(s).
An underfloor shaft, particularly for energy distribution and/or telecommunications, situated in whose upper end section there is a shaft cover, the upper side of which extends substantially flush with the surroundings of the shaft, whereby arranged spaced below the shaft cover there is a lower cover, which rests on support profiles, which are fastened to the shaft wall, and wherein the lower cover is secured against unauthorised opening, characterised in that the lower cover rests on a peripheral sealing frame, which is screwed to the shaft wall and fastened to which there is a peripheral sealing profile, and that the sealing frame has drainage holes outside the peripheral sealing profile at the corner regions, to which drainage hoses extending into the interior of the shaft may be connected.
Computer tomography method for dimensional determination of features of a measurement object, comprising the method steps irradiation of the measurement object in several rotation positions with the radiation of a radiation source and recording of the associated 2D radiographic images, calculation of three-dimensional volume information in voxel format from said 2D radiographic images by means of reconstruction, said volume information containing data on local beam absorption, and generation of surface points from said volume information, preferably in the area of material transitions, the method preferably being used in a coordinate measurement apparatus, characterized by use of correction data for selective correction of physical effects of the measurement data from the computer tomography measurement, said correction data being obtained from the difference between simulation data taking into account the respective physical effects, for example scatter radiation, beam hardening and cone beam artifacts, and simulation data or target data not taking into account the respective physical effects, the measurement data to be corrected being the radiographic images and/or the volume information and/or the surface points.
A fan section for a gas turbine engine component comprising: a fan case configured to surround a fan, wherein the fan case includes at least one mount interface; a component configured to be attached to the mount interface; and an attachment mechanism to attach the component to the fan via the mount interface, the attachment mechanism comprising: an elongated body comprising a flat bar having at least first and second ends; a first attachment feature formed at the first end; and a second attachment feature formed at the second end, wherein the first and second attachment features (68, 70) define attachment points configured to attach the component to the fan case, characterized in that: the first and second attachment features (68, 70) comprise first and second washers that are integrally formed with the flat bar as a single-piece structure; each washer comprises a ring-shaped body with a split, wherein the split separates the ring-shaped body into first and second curved portions (76, 78) with respective first and second upper surfaces, and the first and second upper surfaces are non-coplanar when the washers are in an uninstalled configuration; the component comprises a hot duct structure; and the fan section including a thermal isolation barrier that surrounds the elongated body and the first and second washers to prevent heat from the hot duct structure from being transferred to the fan case via the first and second attachment features (68, 70). a fan case configured to surround a fan, wherein the fan case includes at least one mount interface; a component configured to be attached to the mount interface; and an attachment mechanism to attach the component to the fan via the mount interface, the attachment mechanism comprising: an elongated body comprising a flat bar having at least first and second ends; a first attachment feature formed at the first end; and a second attachment feature formed at the second end, wherein the first and second attachment features (68, 70) define attachment points configured to attach the component to the fan case, an elongated body comprising a flat bar having at least first and second ends; a first attachment feature formed at the first end; and a second attachment feature formed at the second end, wherein the first and second attachment features (68, 70) define attachment points configured to attach the component to the fan case, the first and second attachment features (68, 70) comprise first and second washers that are integrally formed with the flat bar as a single-piece structure; each washer comprises a ring-shaped body with a split, wherein the split separates the ring-shaped body into first and second curved portions (76, 78) with respective first and second upper surfaces, and the first and second upper surfaces are non-coplanar when the washers are in an uninstalled configuration; the component comprises a hot duct structure; and the fan section including a thermal isolation barrier that surrounds the elongated body and the first and second washers to prevent heat from the hot duct structure from being transferred to the fan case via the first and second attachment features (68, 70).
A core network device, comprising: a processor, configured to determine a quality of service parameter corresponding to an object group, wherein the quality of service parameter is an upper limit of a sum of quality of service corresponding to objects in the object group, wherein the processor is further configured to determine, according to the quality of service parameter, the quality of service corresponding to the objects in the object group; characterized in that the object group comprises a total of k active objects A 1 to A k, wherein k is a positive integer, and the processor is configured to determine a level m that k reaches, wherein m is a positive integer, and determine that the quality of service of each active object is q, wherein the q is the quality of service corresponding to the level m; wherein the k and m meet any one of the following relationships: 0<k≤2 m-1 ×N, and m = 1; and 2 m-2 ×N<k≤2 m-1 ×N, and m≥2, wherein N is a positive integer; and wherein the q and m meet the following relationship: q≤Q/(2 m-1 ×N), wherein the Q is a value of the quality of service parameter. a processor, configured to determine a quality of service parameter corresponding to an object group, wherein the quality of service parameter is an upper limit of a sum of quality of service corresponding to objects in the object group, wherein the processor is further configured to determine, according to the quality of service parameter, the quality of service corresponding to the objects in the object group; characterized in that the object group comprises a total of k active objects A 1 to A k, wherein k is a positive integer, and the processor is configured to determine a level m that k reaches, wherein m is a positive integer, and determine that the quality of service of each active object is q, wherein the q is the quality of service corresponding to the level m; wherein the k and m meet any one of the following relationships: 0<k≤2 m-1 ×N, and m = 1; and 2 m-2 ×N<k≤2 m-1 ×N, and m≥2, wherein N is a positive integer; and 0<k≤2 m-1 ×N, and m = 1; and 2 m-2 ×N<k≤2 m-1 ×N, and m≥2, wherein N is a positive integer; and wherein the q and m meet the following relationship: q≤Q/(2 m-1 ×N), wherein the Q is a value of the quality of service parameter. q≤Q/(2 m-1 ×N), wherein the Q is a value of the quality of service parameter.
An aiming ring for tomosynthesis intraoral x-ray imaging, wherein the aiming ring is attached to a sensor holder that is adapted to hold an intraoral x-ray sensor, and wherein the aiming ring comprises: an aperture (125; characterized by further comprising: at least one alignment marker disposed within the aperture, the at least one alignment marker capable of being imaged in a plurality of projection images by tomosynthesis x-ray imaging.
Line-segment arrangement comprising a line segment, which extends along a centre axis and has a wall and also an inlet and an outlet, and a throttle element, which is arranged in the line segment and by means of which the cross section of the line segment can be altered, wherein the throttle element comprises at least one throttle crosspiece which is fixed in the line segment and at least one throttle crosspiece which is movable, and can be moved relative to the fixed throttle crosspiece, wherein the throttle crosspieces (7, 8) project into the cross section of the line segment, characterized in that the fixed throttle crosspieces are arranged exclusively in the region of one half of the line segment, and in that the movable throttle crosspieces are arranged exclusively in the region of one half of the line segment; and/or in that two groups of at least one movable throttle crosspiece are spaced apart from one another in the flow direction, wherein one of the groups is arranged above, and the other of the groups is arranged beneath, the at least one fixed throttle crosspiece, or wherein both groups are arranged above or beneath the at least one fixed throttle crosspiece.
Disc brake, in particular for a commercial vehicle, comprising a brake calliper, which encompasses a brake disc and is mounted, in an axially displaceable manner relative to the brake disc, on an adapter by means of two fastening elements, of which one is designed as a fixed bearing and the other is designed as a floating bearing, each forming a plain bearing comprising a sliding bushing (5, 6) and a guide tube guided therein, which is permanently joined to the adapter and on which is located a formable sealing element supported on the guide tube for sealing the exit region assigned to the adapter, characterised in that each plain bearing is held in a sheathing sleeve and is therewith and with the sealing element, which is designed as an air sleeve or bellows and secured, non-displaceably and while forming a seal, on the one hand on the guide tube and on the other hand on a sheathing sleeve or the sliding bushing, pressed into a reception bore of the brake calliper as a pre-assembled unit.
A degradation determination apparatus for determining degradation of an energy storage device, the apparatus comprising: a measured data acquisition unit configured to acquire measured time-series data, the measured time-series data including a measured electric value and a measured temperature value of the energy storage device; a predicted data acquisition unit configured to acquire predicted time-series data, the predicted time-series data including a predicted electric value and a predicted temperature value of the energy storage device; and a learning processing unit configured to cause a learning model to learn based on learning data having the measured time-series data and the predicted time-series data as input data and having determination of degradation of the energy storage device as output data; wherein the learning processing unit is configured to cause the learning model to learn based on learning data having, as input data, respective pieces of time-series data of: a difference or a ratio between the measured electric value and the predicted electric value; and a difference or a ratio between the measured temperature value and the predicted temperature value. a measured data acquisition unit configured to acquire measured time-series data, the measured time-series data including a measured electric value and a measured temperature value of the energy storage device; a predicted data acquisition unit configured to acquire predicted time-series data, the predicted time-series data including a predicted electric value and a predicted temperature value of the energy storage device; and a learning processing unit configured to cause a learning model to learn based on learning data having the measured time-series data and the predicted time-series data as input data and having determination of degradation of the energy storage device as output data; wherein the learning processing unit is configured to cause the learning model to learn based on learning data having, as input data, respective pieces of time-series data of: a difference or a ratio between the measured electric value and the predicted electric value; and a difference or a ratio between the measured temperature value and the predicted temperature value.
A computer-implemented method for managing a human-machine interface comprising a plurality of displays, comprising the steps of: - receiving information relating to the position of the eyes and the direction of the gaze of a user on the human-machine interface; - receiving physiological information of the user; - determining a level of cognitive load from among a plurality of predefined levels on the basis of the received physiological information; - adjusting the display of the human-machine interface on the basis of the direction of the gaze and of the determined level of cognitive load; and displaying, at the periphery of the human-machine interface, a graphical message at a configurable distance from the location of the human-machine interface at which the gaze of the user is directed, the message originating from an avionic system and relating to a flight parameter delivered by the avionic system, the distance being dependent on the cognitive load and/or the priority associated with the message and a location of the graphical message being moved so that the distance decreases over time. - receiving information relating to the position of the eyes and the direction of the gaze of a user on the human-machine interface; - receiving physiological information of the user; - determining a level of cognitive load from among a plurality of predefined levels on the basis of the received physiological information; - adjusting the display of the human-machine interface on the basis of the direction of the gaze and of the determined level of cognitive load; and