mhurhangee/ep-ind-claims huggingface dataset:
In a computing resource environment including at least two different resource name spaces, a method of generating a fully qualified resource name for a particular resource based on a context-based name of that resource and a particular usage context, the method comprising: receiving, as inputs, a name schema associated with the resource name, the context-based name, and the usage context; comparing an entry in the name schema and an entry in the context-based name; determining, based on an outcome of said comparing, whether the schema includes a moniker that is missing from the context-based name, where a moniker is a string representing a name or part of a name; in response to a determination that the schema includes a moniker that is missing from the context-based name, determining whether the missing moniker is an attribute space moniker, where an attribute space moniker is the unique name of a family of names of attributes associated with a resource; in response to a determination that the missing moniker is an attribute space moniker, adding the attribute space moniker to a full name that includes the context-based name; in response to a determination that the missing moniker is not an attribute space moniker, determining the attribute space associated with the missing moniker; searching the usage context for information representing an association between the missing moniker, the attribute space associated with the missing moniker, and a value assigned to the missing moniker; and appending the searched-for attribute space, missing moniker, and value assigned to the missing moniker to the full name. receiving, as inputs, a name schema associated with the resource name, the context-based name, and the usage context; comparing an entry in the name schema and an entry in the context-based name; determining, based on an outcome of said comparing, whether the schema includes a moniker that is missing from the context-based name, where a moniker is a string representing a name or part of a name; in response to a determination that the schema includes a moniker that is missing from the context-based name, determining whether the missing moniker is an attribute space moniker, where an attribute space moniker is the unique name of a family of names of attributes associated with a resource; in response to a determination that the missing moniker is an attribute space moniker, adding the attribute space moniker to a full name that includes the context-based name; in response to a determination that the missing moniker is not an attribute space moniker, determining the attribute space associated with the missing moniker; searching the usage context for information representing an association between the missing moniker, the attribute space associated with the missing moniker, and a value assigned to the missing moniker; and appending the searched-for attribute space, missing moniker, and value assigned to the missing moniker to the full name.
Cleaning cloth made of a planar, non-woven fabric material having an underside and an upper side, comprising absorbent natural fibers and synthetic melt-bonded fibers, at least one side of the cleaning cloth having a partial, non-full-surface coating, characterized in that the cleaning cloth has, on at least one side, an embossing having raised unembossed regions and deeper-lying embossed regions.
Frequency converter having: - at least one bridge arm, wherein a shunt resistor is arranged in the at least one bridge arm, and - an evaluation device having an input connection (4a, 4b), wherein the evaluation device is designed to evaluate a measurement signal, which is present at the input connection (4a, 4b) and is dependent on a voltage dropped across the shunt resistor, in order to determine a measurement variable, characterized in that - the frequency converter has a voltage peak suppression device which is designed to short-circuit the input connection (4a, 4b) of the evaluation device if a voltage peak occurs at the shunt resistor, - wherein the voltage peak suppression device has: - at least one switching means which is looped in between the input connection (4a, 4b) of the evaluation device and is controlled by means of a control signal, wherein the switching means short-circuits the input connection (4a, 4b) of the evaluation device on the basis of a state of the control signal, and - a high-pass filter which generates the control signal on the basis of the voltage dropped across the shunt resistor. - at least one bridge arm, wherein a shunt resistor is arranged in the at least one bridge arm, and - an evaluation device having an input connection (4a, 4b), wherein the evaluation device is designed to evaluate a measurement signal, which is present at the input connection (4a, 4b) and is dependent on a voltage dropped across the shunt resistor, in order to determine a measurement variable, - the frequency converter has a voltage peak suppression device which is designed to short-circuit the input connection (4a, 4b) of the evaluation device if a voltage peak occurs at the shunt resistor, - wherein the voltage peak suppression device has: - at least one switching means which is looped in between the input connection (4a, 4b) of the evaluation device and is controlled by means of a control signal, wherein the switching means short-circuits the input connection (4a, 4b) of the evaluation device on the basis of a state of the control signal, and - a high-pass filter which generates the control signal on the basis of the voltage dropped across the shunt resistor. - at least one switching means which is looped in between the input connection (4a, 4b) of the evaluation device and is controlled by means of a control signal, wherein the switching means short-circuits the input connection (4a, 4b) of the evaluation device on the basis of a state of the control signal, and - a high-pass filter which generates the control signal on the basis of the voltage dropped across the shunt resistor.
A method comprising: measuring the temperature of a fused region and the temperature of an unfused region of a first layer of build material; determining a preheating setting for a subsequent layer of build material in response to the measured temperature of the unfused region of the first layer; determining a print instruction for applying print agent to the subsequent layer of build material, wherein the application of print agent prescribed by the print instruction for the subsequent layer is to cause the temperature of the preheated build material to be a predetermined temperature prior to fusion in response to the measured temperature of the fused region of the first layer; forming the subsequent layer of build material; preheating the subsequent layer of build material in accordance with the preheating setting; and selectively applying the print agent onto the subsequent layer based on the print instruction. measuring the temperature of a fused region and the temperature of an unfused region of a first layer of build material; determining a preheating setting for a subsequent layer of build material in response to the measured temperature of the unfused region of the first layer; determining a print instruction for applying print agent to the subsequent layer of build material, wherein the application of print agent prescribed by the print instruction for the subsequent layer is to cause the temperature of the preheated build material to be a predetermined temperature prior to fusion in response to the measured temperature of the fused region of the first layer; forming the subsequent layer of build material; preheating the subsequent layer of build material in accordance with the preheating setting; and selectively applying the print agent onto the subsequent layer based on the print instruction.
A barley plant, or a part thereof, having a mutation in the LOX-1 gene causing a total loss-of-function, wherein the gene encoding LOX-1 of said plant comprises a nonsense codon, said codon corresponding to base no.s 3572-3574 of SEQ ID NO: 2.
A method for controlling a nonvolatile memory arrangement, comprising: applying a first biasing voltage to a switching electrode to bend a micromechanical element and thereby move the micromechanical element from a first, de-programmed state spaced from a contact electrode to a second state in contact with the contact electrode and spaced a first distance from the switching electrode to generate stiction at the interface between the micromechanical element and the contact electrode and to render the micromechanical element to a programmed state; and applying a second biasing voltage to the switching electrode to further move the micromechanical element and increase the elastic strain energy of the micromechanical element to a value greater than the stiction at the interface between the micromechanical element and the contact electrode, wherein applying the second biasing voltage pulls the micromechanical element further towards the switching electrode; and rapidly dropping the second biasing voltage applied to the switching electrode to move the micromechanical element to the first, de-programmed state by counteracting the stiction at the interface between the micromechanical element and the contact electrode. applying a first biasing voltage to a switching electrode to bend a micromechanical element and thereby move the micromechanical element from a first, de-programmed state spaced from a contact electrode to a second state in contact with the contact electrode and spaced a first distance from the switching electrode to generate stiction at the interface between the micromechanical element and the contact electrode and to render the micromechanical element to a programmed state; and applying a second biasing voltage to the switching electrode to further move the micromechanical element and increase the elastic strain energy of the micromechanical element to a value greater than the stiction at the interface between the micromechanical element and the contact electrode, wherein applying the second biasing voltage pulls the micromechanical element further towards the switching electrode; and rapidly dropping the second biasing voltage applied to the switching electrode to move the micromechanical element to the first, de-programmed state by counteracting the stiction at the interface between the micromechanical element and the contact electrode.
Profile bar, in particular an extruded profile made from a light metal alloy, preferably from an aluminum alloy, having at least one undercut longitudinal slot which has a slot bottom and extends in the direction of the longitudinal extent of the profile bar, and the longitudinal slot opening opposite to the slot bottom in the direction of a longitudinal slot height perpendicular to the longitudinal extent of the longitudinal slot of which is limited by two undercut sections (14, 15) spaced apart by the longitudinal slot opening, wherein a longitudinal slot opening width (b) measured perpendicular to the longitudinal extent of the longitudinal slot is less than a maximum longitudinal slot width (b n) in a longitudinal slot region located below the undercut sections (14, 15) viewed along the longitudinal slot height, characterized in that a longitudinal duct extending parallel to the longitudinal slot is provided under the slot bottom, which is spaced from the longitudinal slot by a section of profile bar solid material which forms the slot bottom and is formed as a penetration section and/or molded section, which is penetrable, in particular punchable, by a connector screw in the direction of the longitudinal slot height for establishing a form fit with the profile bar and/or into which a connector screw is moldable for establishing a form fit with the profile bar in the direction of the longitudinal slot height in such a way that profile bar solid material of the molded section is displaceable into the longitudinal duct. which is penetrable, in particular punchable, by a connector screw in the direction of the longitudinal slot height for establishing a form fit with the profile bar and/or into which a connector screw is moldable for establishing a form fit with the profile bar in the direction of the longitudinal slot height in such a way that profile bar solid material of the molded section is displaceable into the longitudinal duct.
A dressing, comprising: a first foam layer having a pore density in a range between approximately 35.4 pores per cm (90 pores per inch) and approximately 141.7 pores per cm (360 pores per inch); a superabsorbent material deposited on the first foam layer; and a second foam layer having a pore density in a range between approximately 35.4 pores per cm (90 pores per inch) and approximately 141.7 pores per cm (360 pores per inch); wherein the superabsorbent material is confined between the first foam layer and the second foam layer. a first foam layer having a pore density in a range between approximately 35.4 pores per cm (90 pores per inch) and approximately 141.7 pores per cm (360 pores per inch); a superabsorbent material deposited on the first foam layer; and a second foam layer having a pore density in a range between approximately 35.4 pores per cm (90 pores per inch) and approximately 141.7 pores per cm (360 pores per inch); wherein the superabsorbent material is confined between the first foam layer and the second foam layer.
System consisting of a cap for fastening on a container that contains a pressurised or pressurisable medium, where the container displays a tilting valve comprising a sealing part that can be connected to the container and a valve nozzle interacting with the sealing part, and the cap can be fastened on the container in the area of the tilting valve, and of a dispenser having a fastening area by means of which it can be fastened on the valve nozzle through a central opening of the cap, such that the tilting valve can be actuated by tilting movement of the dispenser, where the inner area of the opening of the cap and the outer area of the fastening area of the dispenser display positively interacting areas that, in tilted position of the dispenser relative to the container, create a positive fit opposing removal of the dispenser in the axial direction of the tilted position and detachment of the fastening area of the dispenser from the valve nozzle of the tilting valve, characterised in that the edge of the opening of the cap and the fastening area of the dispenser are designed in such a way that the dispenser can be passed through the opening in the axial direction relative to the opening and the container, in which the tilting valve is not actuated, by means of its fastening area and fastened on the valve nozzle, and can be removed from the valve nozzle through the opening.
A method for creating a map, the method comprising repeating the following steps a plurality of times: acquiring an image captured when an acquisition entity is moving, location data associated with the image, and point cloud data associated with the image, the location data indicating a location where the acquisition entity is located when the image is captured, and the point cloud data indicating three-dimensional information of the image; extracting a global feature of the image, the global feature being a spatial envelope of the image; and associating the location data with the global feature to generate a first element in a global feature layer of the map; and extracting a plurality of local features of the image, the plurality of local features representing each an attribute related to a part of the image; extracting three-dimensional information associated with each one of the plurality of local features from the point cloud data; and associating each one of the plurality of local features with the corresponding three-dimensional information to generate a second element in a local feature layer of the map, the first element corresponding to the second element. acquiring an image captured when an acquisition entity is moving, location data associated with the image, and point cloud data associated with the image, the location data indicating a location where the acquisition entity is located when the image is captured, and the point cloud data indicating three-dimensional information of the image; extracting a global feature of the image, the global feature being a spatial envelope of the image; and associating the location data with the global feature to generate a first element in a global feature layer of the map; and extracting a plurality of local features of the image, the plurality of local features representing each an attribute related to a part of the image; extracting three-dimensional information associated with each one of the plurality of local features from the point cloud data; and associating each one of the plurality of local features with the corresponding three-dimensional information to generate a second element in a local feature layer of the map, the first element corresponding to the second element.
Method for identifying interfering disruptive factors in a sample which provides a first assay result in a first assay method in which the sample is contacted with one or more functional components for detecting an analyte in order to detect the analyte in the sample, characterized in that the sample is tested in a second assay method, wherein the second assay method differs from the first assay method merely in that a functional component for detecting the analyte in the sample is not contacted with the sample.
An engine cooling device comprising a water pump, a radiator, an exhaust heat recovery unit, a coolant circulation circuit for circulating a coolant in these apparatuses, and a flow rate limiting means (70, 30) that limits a flow rate of the coolant that circulates in the exhaust heat recovery unit in a case where a temperature (Ta) of a sensor element of an exhaust gas sensor (80, 90) that is disposed downstream of the exhaust heat recovery unit in an exhaust path is below a preset activation temperature, the engine cooling device being characterized in that the exhaust gas sensor (80, 90) is an oxygen sensor or an air fuel ratio sensor, and that the temperature (Ta) of the sensor element of the exhaust gas sensor (80, 90) is estimated through a temperature estimation map based on a temperature (Tw) of the coolant and a temperature (Tg) of an exhaust gas.
An X-ray source for producing soft X-rays for sterilising an article, the X-ray source comprising: a cathode having an electron-emitting structure supported by a support structure, the electron-emitting structure being at least partially transparent to X-rays within a region bounded by the support structure; an anode having an X-ray emitting surface parallel to the electron-emitting structure of the cathode; and an electrically insulating spacer arranged between the anode and the support structure of the cathode; wherein the electron-emitting structure of the cathode and the X-ray emitting surface of the anode are arranged such that, in use, the electron-emitting structure is operable to bombard the anode with electrons, causing X-rays to be emitted from the X-ray emitting surface and to pass through the cathode; wherein the X-ray source further comprises an X-ray transparent window on the opposite side of the cathode from the anode, the window defining a chamber between the window and the anode; and wherein the chamber contains a gas at sub-atmospheric pressure such as to allow a discharge in gas, characterized in that the insulating spacer projects beyond the support structure, across part of the anode, into the said region. a cathode having an electron-emitting structure supported by a support structure, the electron-emitting structure being at least partially transparent to X-rays within a region bounded by the support structure; an anode having an X-ray emitting surface parallel to the electron-emitting structure of the cathode; and an electrically insulating spacer arranged between the anode and the support structure of the cathode; wherein the electron-emitting structure of the cathode and the X-ray emitting surface of the anode are arranged such that, in use, the electron-emitting structure is operable to bombard the anode with electrons, causing X-rays to be emitted from the X-ray emitting surface and to pass through the cathode; wherein the X-ray source further comprises an X-ray transparent window on the opposite side of the cathode from the anode, the window defining a chamber between the window and the anode; and wherein the chamber contains a gas at sub-atmospheric pressure such as to allow a discharge in gas, characterized in that the insulating spacer projects beyond the support structure, across part of the anode, into the said region.
A compound comprising a structure of formula, said compound being Wherein R1 is independently selected from methyl, deuterated methyl or oxetane; R2 is independently selected from methyl or deuterated methyl; R3 is independently selected from chlorine atom or ethynyl group; R4 is independently selected from hydrogen atoms or fluorine atoms. Wherein R1 is independently selected from methyl, deuterated methyl or oxetane; R2 is independently selected from methyl or deuterated methyl; R3 is independently selected from chlorine atom or ethynyl group; R4 is independently selected from hydrogen atoms or fluorine atoms.
A common injection device (2A, 2B, 2C), adapted to assemble with an injection needle containing a drug and comprising: a needle bushing (10A, 10B, 10C) adapted to assemble with the injection needle and having a connecting portion (11A, 11B, 11C); a drug-information providing portion (20A, 20B, 20C) disposed on the needle bushing (10A, 10B, 10C) and being capable of providing readable information corresponding to the drug in the injection needle; and an injection propulsion mechanism (40A, 40B, 40C) detachably connected to the connecting portion (11A, 11B, 11C) of the needle bushing (10A, 10B, 10C) and being capable of providing a pushing force for the injection needle to inject the drug, and wherein the needle bushing (10A, 10B, 10C) has a bushing base (12A, 12B, 12C) formed on a front end of the connecting portion (11A, 11B, 11C) and having two operating portions respectively formed on and protruded outwardly from two opposite sides thereof; and a middle hole (13A, 13B) axially formed through the bushing base (12A, 12B, 12C) and the connecting portion (11A, 11B, 11C); wherein the connecting portion (11A, 11B, 11C) has multiple engaging hooks (15A, 15B, 15C) formed on and extended into the middle hole (13A, 13B), the middle hole (13A, 13B) allows for a tube of the injection needle to pass through, and a rear end of the tube is fixable in the middle hole (13A, 13B) by the multiple engaging hooks (15A, 15B, 15C). a needle bushing (10A, 10B, 10C) adapted to assemble with the injection needle and having a connecting portion (11A, 11B, 11C); a drug-information providing portion (20A, 20B, 20C) disposed on the needle bushing (10A, 10B, 10C) and being capable of providing readable information corresponding to the drug in the injection needle; and an injection propulsion mechanism (40A, 40B, 40C) detachably connected to the connecting portion (11A, 11B, 11C) of the needle bushing (10A, 10B, 10C) and being capable of providing a pushing force for the injection needle to inject the drug, and wherein the needle bushing (10A, 10B, 10C) has a bushing base (12A, 12B, 12C) formed on a front end of the connecting portion (11A, 11B, 11C) and having two operating portions respectively formed on and protruded outwardly from two opposite sides thereof; and a middle hole (13A, 13B) axially formed through the bushing base (12A, 12B, 12C) and the connecting portion (11A, 11B, 11C); wherein the connecting portion (11A, 11B, 11C) has multiple engaging hooks (15A, 15B, 15C) formed on and extended into the middle hole (13A, 13B), the middle hole (13A, 13B) allows for a tube of the injection needle to pass through, and a rear end of the tube is fixable in the middle hole (13A, 13B) by the multiple engaging hooks (15A, 15B, 15C).