mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the position of a structure in a body, comprising the method steps of: - providing 3D data which represents a three-dimensional image of at least the part of the body which contains the structure; - providing at least two 2D image data sets which each represent an x-ray image of a part of the body containing at least the structure, from a known viewing direction; - generating virtual x-ray images from the 3D data for a virtual position of the 3D data, wherein for each viewing direction for which a 2D image data set has been provided, a corresponding virtual x-ray image is generated; - comparing the virtual x-ray images in pairs with the corresponding 2D image data sets and generating a cumulative degree of similarity (F cumm) for the virtual position of the 3D data from all the comparisons; - repeating the steps of generating virtual x-ray images, comparing in pairs and generating a cumulative degree of similarity for different virtual positions of the 3D data; and - determining the position of the structure in the body from the virtual position of the 3D data which results in the greatest cumulative degree of similarity, characterized in that a penalty additionally enters into the cumulative degree of similarity (Fcumm) which depends on the deviation of the respective virtual position of the 3D data from an initial position. - providing 3D data which represents a three-dimensional image of at least the part of the body which contains the structure; - providing at least two 2D image data sets which each represent an x-ray image of a part of the body containing at least the structure, from a known viewing direction; - generating virtual x-ray images from the 3D data for a virtual position of the 3D data, wherein for each viewing direction for which a 2D image data set has been provided, a corresponding virtual x-ray image is generated; - comparing the virtual x-ray images in pairs with the corresponding 2D image data sets and generating a cumulative degree of similarity (F cumm) for the virtual position of the 3D data from all the comparisons; - repeating the steps of generating virtual x-ray images, comparing in pairs and generating a cumulative degree of similarity for different virtual positions of the 3D data; and - determining the position of the structure in the body from the virtual position of the 3D data which results in the greatest cumulative degree of similarity, characterized in that a penalty additionally enters into the cumulative degree of similarity (Fcumm) which depends on the deviation of the respective virtual position of the 3D data from an initial position.
A method of characterizing a pressure sensor of a process device, comprising: applying a plurality of pressures to a pressure sensor of the process device across a characterization pressure range for each of a plurality of pressure sensor temperatures; receiving outputs from the pressure sensor related to the applied plurality of pressures; and determining a compensation relationship, relating the applied pressure and pressure sensor temperature to the pressure sensor output, based upon the outputs from the pressure sensor; characterized in that different applied pressures are non-uniformly distributed across the characterization pressure range. applying a plurality of pressures to a pressure sensor of the process device across a characterization pressure range for each of a plurality of pressure sensor temperatures; receiving outputs from the pressure sensor related to the applied plurality of pressures; and determining a compensation relationship, relating the applied pressure and pressure sensor temperature to the pressure sensor output, based upon the outputs from the pressure sensor; characterized in that different applied pressures are non-uniformly distributed across the characterization pressure range.
A process medium-controlled regulating valve for fluid flow-through regulation, having a main valve, which has an axially stroke adjustable main valve piston and a main valve seat cooperating therewith, which delimits an outlet chamber in a radially inward direction and an inlet chamber in a radially outward direction, and having a pilot valve for controlling the main valve piston, which has a control chamber on the side of the main valve piston facing away from the main valve seat, which is fluidically connected to the inlet chamber via a pilot line in the main valve piston and to the outlet chamber via a pressure relief line, and a pilot valve piston, which in a closed position closes the pressure relief line, building up a closing pressure in the control chamber and moving the main valve piston in a closing direction, and which in an open position opens the pressure relief line, equalizing the pressure between the control chamber and the outlet chamber and moving the main valve piston in an opening direction, wherein an axially stationary cleaning wire element is guided with hole clearance through the pilot line and the pilot line is movable along the cleaning wire element guided therein during a stroke adjustment of the main valve piston, wherein the cleaning wire element has an actuation contour, which can be brought into sliding engagement with a counter contour formed on the main valve piston at least during the stroke adjustment of the main valve piston, building up a transverse force acting on the cleaning wire element, characterized in that the cleaning wire element has a wire base body guided through the pilot line, which is continuously straight in a wire longitudinal extension direction and from which the actuation contour projects in a transverse direction, wherein the actuation contour is a free wire end of the cleaning wire element, wherein the cleaning wire element guided through the pilot line extends by its free wire end beyond a pilot line opening facing the inlet chamber, and wherein the free wire end is bent at an oblique angle (α) with respect to the wire base body or the free wire end has an angled loop in order to form the actuation contour.
Heating/cooling system for motor vehicles for air conditioning a vehicle interior comprising a supply air line through which a supply air flow can flow into the vehicle interior, an exhaust air line through which an exhaust air flow can flow from the vehicle interior, a supply air/exhaust air heat exchanger connectable with the supply air line and the exhaust air line, and a condensation water line through which a condensation water flow can flow, wherein the condensation water line is connectable with a supply means by means of which the condensation water can be introduced into the exhaust air line upstream of the supply air/exhaust air heat exchanger, characterized in that the condensation water line is connected with a condensation water/coolant heat exchanger.
A spacer structure for a saw disc assembly of a sawing machine, comprising: - a hub device having a central axis and being adapted to be coaxially arranged between a pair of saw discs (201; 202; 203), and - at least one elongated spacer means adapted to be arranged between the pair of axially peripheral saw discs (201; 202; 203) in a substantially radial manner in relation to a central portion (201c; 202c; 203c) of said pair of peripheral saw discs (201; 202; 203), wherein said hub device is configured and adapted to be arranged at a proximal portion of said elongated spacer means, wherein said hub device is substantially planar and is provided with first connection means and said elongated spacer means is substantially planar and is provided with second connection means, said first and second connection means being configured and adapted in such a way that they are corresponding connection means, said planar hub device and said planar elongated spacer means having substantially the same thickness parallel to said central axis, said hub device having at least one opening for receiving a fastening element for connection of said hub device to said central portion (201c; 203c) of said pair of peripheral saw discs, a distal portion of said spacer means having at least one bore for receiving a fastening element for connection to said pair of peripheral saw discs (201; 202; 203). - a hub device having a central axis and being adapted to be coaxially arranged between a pair of saw discs (201; 202; 203), and - at least one elongated spacer means adapted to be arranged between the pair of axially peripheral saw discs (201; 202; 203) in a substantially radial manner in relation to a central portion (201c; 202c; 203c) of said pair of peripheral saw discs (201; 202; 203),
Decoupling mat with a continuous plastic layer, for example produced by deep-drawing and having on a first broad side first shaped-out portions, the shaped-out portions at the same time forming second shaped-out portions on a second broad side opposite the first broad side, the first shaped-out portions furthermore being delimited in their longitudinal extent by portions of reduced height (h') and/or width (c') which also form, at the same time, with respect to the portions, delimited partial regions of smaller depth (s') and/or width (d'), wherein the first portions are formed in an elongated rib-like manner, wherein a measure of a longitudinal extension corresponds to a multiple of the width extension, wherein the portions or the portions respectively being arranged offset relative to one another transversely to their longitudinal extent, characterized in that the portions merge on both sides transversely to their longitudinal extent into a continuous channel which is continuous relative to all the portions formed one behind the other in their longitudinal extent and which has a constant depth (t) over its length, that the substantially continues channel is separating to parallel running, immediately for a longitudinal extension next to one another arranged rows of portions, thereby cross-sections being produced between the channels running all in all parallel to one another in the region of the sections of reduced height (h') for limiting the length of the portions, and in that a channel forms, with respect to all the portions formed one behind the other in its longitudinal extent, at the same time a continuous wall which has a constant height (h) over its length.
A hair accessory device comprising: (a) a male snap member configured for communicating with a hair accessory; and (b) a female snap member for mating with the male snap member, the female snap member configured for communicating with a hair accessory, characterized in that the female snap member includes an aperture for feeding hair there through, and in that the male snap member includes a stem member, and in that the male and female snap members (20, 10) are moveable between a first position, in which the stem member is inserted in the aperture to form a snap retaining the hair, and a second position, in which the snap is disengaged. (a) a male snap member configured for communicating with a hair accessory; and (b) a female snap member for mating with the male snap member, the female snap member configured for communicating with a hair accessory,
A control system of a tape feeder that includes a reel on which is wound component supply tape in which components are packaged by being arranged in a line, and a tape feeding device configured to draw out the component supply tape from the reel and pitch feed the component supply tape such that a leading component in the component supply tape is moved to a component pickup position to be picked up by a suction nozzle of a component mounter, the control system comprising: a tape remaining amount information acquiring section configured to acquire tape remaining amount information that is information relating to a remaining amount of the tape on the reel; characterized by: an auxiliary actuator configured to reinforce drive power to pitch feeding operation of the component supply tape by the tape feeding device; a control section configured to change an operation parameter of the auxiliary actuator and a motor that is a drive source of the tape feeding device based on the tape remaining amount information acquired by the tape remaining amount information acquiring section. an auxiliary actuator configured to reinforce drive power to pitch feeding operation of the component supply tape by the tape feeding device; a control section configured to change an operation parameter of the auxiliary actuator and a motor that is a drive source of the tape feeding device based on the tape remaining amount information acquired by the tape remaining amount information acquiring section.
A method for mapping a location in a source code to a location in a machine code, the method comprising: receiving an identifier of the source code and an identifier of a first location of the source code; inserting a marker in association with the source code based on the identifier of the first location; compiling the source code into machine code; identifying a second location in the machine code associated with the marker; and returning a third location based on identifying the second location, wherein the marker is a preset function call that is an exit function call, wherein compiling of the source code stops in response to the exit function call when the exit function call is reached. receiving an identifier of the source code and an identifier of a first location of the source code; inserting a marker in association with the source code based on the identifier of the first location; compiling the source code into machine code; identifying a second location in the machine code associated with the marker; and returning a third location based on identifying the second location, wherein the marker is a preset function call that is an exit function call, wherein compiling of the source code stops in response to the exit function call when the exit function call is reached.
A method for a network node, the method comprising: determining a Transmission Time Interval, TTI, configuration, the TTI configuration including a first TTI for operating a first signal between a first cell on a first carrier and a wireless device, and a second TTI for operating a second signal between the first cell on the first carrier and the wireless device (Step 302), the TTI configuration including any of: the first TTI adjacent to the second TTI which do not overlap with each other in time; and the first TTI adjacent to the second TTI which at least partly overlap with each other in time; and receiving the first signal in the first TTI and the second signal in the second TTI, the first TTI and second TTI having been transmitted using a same maximum output power value, the same maximum output power value being based on the TTI configuration (Step 304), wherein the same maximum output power value is based on time lengths of the first TTI and the second TTI. determining a Transmission Time Interval, TTI, configuration, the TTI configuration including a first TTI for operating a first signal between a first cell on a first carrier and a wireless device, and a second TTI for operating a second signal between the first cell on the first carrier and the wireless device (Step 302), the TTI configuration including any of: the first TTI adjacent to the second TTI which do not overlap with each other in time; and the first TTI adjacent to the second TTI which at least partly overlap with each other in time; and the first TTI adjacent to the second TTI which do not overlap with each other in time; and the first TTI adjacent to the second TTI which at least partly overlap with each other in time; and receiving the first signal in the first TTI and the second signal in the second TTI, the first TTI and second TTI having been transmitted using a same maximum output power value, the same maximum output power value being based on the TTI configuration (Step 304), wherein the same maximum output power value is based on time lengths of the first TTI and the second TTI.
An agricultural working machine, in particular a tractor, comprising a chassis which has at least a first assembly and a second assembly, wherein an assembly (18, 20, 26) respectively has at least one component (12, 14, 16, 22, 24), and wherein the chassis has at least one centring means which in the assembled state of the chassis is arranged a centring position between two assemblies (18, 20, 26) arranged adjoining each other, wherein in the centring position the centring means is respectively at least partially received in the mutually adjoining assemblies (18, 20, 26) in recesses provided for that purpose, characterised in that in the assembled state of the chassis the centring means can be moved from the centring position into a dismantling position in which the centring means is received only in one of the assemblies (18, 20, 26), wherein the centring means has radially inwardly and/or at the end a connecting profile, by which the centring means can be connected to a pulling means.
A method of providing a liquid cooling composition containing a primary cooling compound which is (1R,2S,5R)-N-(4-(cyanomethyl)phenyl)-2-isopropyl-5-methylcyclohexane-carboxamide, comprising the blending of (1R,2S,5R)-N-(4-(cyanomethyl)phenyl)-2-isopropyl-5-methylcyclohexanecarboxamide with at least one different secondary cooling compound selected from the group consisting of menthyl lactate, 2-isopropyl-N,2,3-trimethylbutanamide, and (1R,2S,5R)-2-isopropyl-5-methyl-N-(2-(pyridin-2-yl)ethyl)cyclo-hexanecarboxamide, and mixtures thereof, and at least one ingestible non-polar solvent for the primary cooling compound, selected from medium-chain triglyceride, peppermint oil, spearmint oil, triacetin, orange oil, lemon oil, lime oil, liquid flavours and menthol, the weight ratios of primary cooling compound: secondary cooling compound: solvent being 1:1.5-2.25:1.75-4.4.
A compound of Table 1 for use in preventing or treating an inflammatory disease. [Table 1] Compound names Compound structures S02546436 S02276077 S06696686 S06690562 S06713271 S02396152 S01525559 S06542401 S01739292 S01688300 S06570841 S06570001 S06568641 S06572801 S01577528 S01382085 S01442577 S01414289 S01292238
An electroacoustic system comprising: (a) a first transducer comprising a first electrically conductive stator, a first upper non-conductive vent element, a first lower non-conductive vent element, an upper frame (2404a, 2405a), a lower frame (2404b, 2405b), an upper membrane, and a lower membrane; and (b) a second transducer comprising a second electrically conductive stator, a second upper non-conductive vent element, and a second lower non-conductive vent element; wherein: (i) the first transducer and the second transducer are stacked, and (ii) the first electrically conductive stator is thicker than the second electrically conductive stator. (a) a first transducer comprising a first electrically conductive stator, a first upper non-conductive vent element, a first lower non-conductive vent element, an upper frame (2404a, 2405a), a lower frame (2404b, 2405b), an upper membrane, and a lower membrane; and (b) a second transducer comprising a second electrically conductive stator, a second upper non-conductive vent element, and a second lower non-conductive vent element; (i) the first transducer and the second transducer are stacked, and (ii) the first electrically conductive stator is thicker than the second electrically conductive stator.
A bonded abrasive article comprising a plurality of abrasive particles wherein at least half of the plurality of abrasive particles comprises elongate shaped abrasive particles comprising an elongate shaped ceramic body having opposed first and second ends joined to each other by at least two longitudinal sidewalls, wherein at least one of the at least two longitudinal sidewalls is concave along its length, and wherein at least one of the first and second ends is a fractured surface; wherein the width of the elongate shaped abrasive particle is at least 100 microns; and wherein elongate means having an aspect ratio of at least 2 and aspect ratio refers to the ratio of average length to average thickness; bonded together by a binder material.
A plate making method of a lithographic printing plate comprising: exposing imagewise a lithographic printing plate precursor comprising a support and an image-forming layer comprising a binder polymer, a radical polymerizable compound, a polymerization initiator, a sensitizing dye and a heat-fusible resin particle; and developing the exposed lithographic printing plate precursor to remove a non-image area; characterized by drying the developed lithographic printing plate precursor at heat fusion temperature of the heat-fusible resin particle or higher. exposing imagewise a lithographic printing plate precursor comprising a support and an image-forming layer comprising a binder polymer, a radical polymerizable compound, a polymerization initiator, a sensitizing dye and a heat-fusible resin particle; and developing the exposed lithographic printing plate precursor to remove a non-image area; characterized by drying the developed lithographic printing plate precursor at heat fusion temperature of the heat-fusible resin particle or higher.
A pupil detection system comprising: a vector calculation unit configured to calculate a plurality of candidate vectors each connecting a corneal sphere center and a pupil center by a stereo method based on a first pupil image of a subject which is picked up by a first camera (10 L) and a second pupil image of the subject which is picked up by a second camera (10 R) the corneal sphere center being an intersection point between an axis (L L) passing through the first camera and a corneal reflection point (R L) obtained from the first pupil image and an axis (L R) passing through the second camera and a corneal reflection point (R R) obtained from the second pupil image; characterised by a determination unit (22, 23) configured to select, from among the plurality of candidate vectors, a candidate vector satisfying a vector condition in which an angle (α) between the candidate vector and a reference line, which is set based on a position of at least one of the first camera and the second camera, is equal to or less than a predetermined threshold and determine that a pupil is located at a pupil center corresponding to the selected candidate vector. a vector calculation unit configured to calculate a plurality of candidate vectors each connecting a corneal sphere center and a pupil center by a stereo method based on a first pupil image of a subject which is picked up by a first camera (10 L) and a second pupil image of the subject which is picked up by a second camera (10 R) the corneal sphere center being an intersection point between an axis (L L) passing through the first camera and a corneal reflection point (R L) obtained from the first pupil image and an axis (L R) passing through the second camera and a corneal reflection point (R R) obtained from the second pupil image; characterised by a determination unit (22, 23) configured to select, from among the plurality of candidate vectors, a candidate vector satisfying a vector condition in which an angle (α) between the candidate vector and a reference line, which is set based on a position of at least one of the first camera and the second camera, is equal to or less than a predetermined threshold and determine that a pupil is located at a pupil center corresponding to the selected candidate vector.