mhurhangee/ep-ind-claims huggingface dataset:
A crystalline free base of 9-((8-fluoro-6-(1-methyl-1H-pyrazol-4-yl)-[1,2,4]triazolo[4,3-a]pyridine-3-yl)thio)-4-methyl-2H-[1,4]oxaazido[3,2-c]quinoline-3 -one, wherein the crystalline free base is selected from the group consisting of crystal form I, crystal form II, crystal form III and crystal form IV, wherein an X-ray powder diffraction spectrum of crystal form I of the crystalline free base comprises peaks at diffraction angles (2θ) of 13.0±0.2°, 17.9±0.2°, 21.2±0.2° and 31.4±0.2°, preferably, also comprises peaks at diffraction angles (2θ) of 10.3±0.2°, 11.1±0.2°, 23.3±0.2°, 23.8±0.2° and 33.6±0.2°, more preferably, further also comprises peaks at diffraction angles (2θ) of 15.7±0.2°, 17.7±0.2°, 26.8±0.2°, 28.0±0.2°, 31.7±0.2° and 32.8±0.2°, the most preferably, the X-ray powder diffraction spectrum comprises substantially the same peaks at diffraction angles (2θ) as shown in Figure 1; wherein an X-ray powder diffraction spectrum of crystal form II of the crystalline free base comprises peaks at diffraction angles (2θ) of 8.6±0.2°, 11.5±0.2°, 14.1±0.2° and 19.8±0.2°, preferably, also comprises peaks at diffraction angles (2θ) of 11.9±0.2°, 14.7±0.2°, 15.2±0.2°, 17.2±0.2° and 18.9±0.2°, more preferably, further also comprises peaks at diffraction angles (2θ) of 5.8±0.2°, 7.4±0.2°, 20.9±0.2°, 30.9±0.2°, 31.4±0.2° and 37.9±0.2°, the most preferably, the X-ray powder diffraction spectrum comprises substantially the same peaks at diffraction angles (2θ) as shown in Figure 4; wherein an X-ray powder diffraction spectrum of crystal form III of the crystalline free base comprises peaks at diffraction angles (2θ) of 12.8±0.2°, 14.8±0.2°, 18.0±0.2° and 20.5±0.2°, preferably, also comprises peaks at diffraction angles (2θ) of 8.9±0.2°, 9.2±0.2°, 10.6±0.2°, 15.8±0.2° and 20.7±0.2°, more preferably, further also comprises peaks at diffraction angles (2θ) of 5.3±0.2°, 5.9±0.2°, 12.0±0.2°, 14.0±0.2°, 17.3±0.2° and 19.9±0.2°, the most preferably, the X-ray powder diffraction spectrum comprises substantially the same peaks at diffraction angles (2θ) as shown in Figure 5; wherein an X-ray powder diffraction spectrum of crystal form IV of the crystalline free base comprises peaks at diffraction angles (2θ) of 8.9±0.2°, 12.6±0.2°, 17.0±0.2° and 17.9±0.2°, preferably, also comprises peaks at diffraction angles (2θ) of 13.2±0.2°, 14.5±0.2°, 20.5±0.2°, 23.9±0.2° and 26.3±0.2°, the most preferably, the X-ray powder diffraction spectrum comprises substantially the same peaks at diffraction angles (2θ) as shown in Figure 7.
Method for activating and controlling a water-repelling process in a wall structure, wherein it comprises the steps of: - creating images of the inner parts of the wall structure by applying integrated microgeophysical techniques in order to characterize the inner parts of said wall structure as concerns the presence of water or humidity; - introducing emulsions, to be used as dehumidifying substances, into said wall structure through electrophoresis; - creating images of the inner parts of said wall structure by applying integrated microgeophysical techniques in order to monitor the path followed by the emulsions, the progress of the water-repelling process, and the effectiveness of the applied treatment over time, characterised in that - the images created are two-dimensional and three-dimensional images; and in that the method further comprises the following steps: - draining the water or humidity from said wall structure via electro-osmosis; and - introducing the emulsions through a simultaneous action exerted by pulsed mechanical overpressure and electrophoresis. - creating images of the inner parts of the wall structure by applying integrated microgeophysical techniques in order to characterize the inner parts of said wall structure as concerns the presence of water or humidity; - introducing emulsions, to be used as dehumidifying substances, into said wall structure through electrophoresis; - creating images of the inner parts of said wall structure by applying integrated microgeophysical techniques in order to monitor the path followed by the emulsions, the progress of the water-repelling process, and the effectiveness of the applied treatment over time, characterised in that - the images created are two-dimensional and three-dimensional images; and in that the method further comprises the following steps: - draining the water or humidity from said wall structure via electro-osmosis; and - introducing the emulsions through a simultaneous action exerted by pulsed mechanical overpressure and electrophoresis. - draining the water or humidity from said wall structure via electro-osmosis; and - introducing the emulsions through a simultaneous action exerted by pulsed mechanical overpressure and electrophoresis.
A manufactured article comprising at least one nanostructured surface, wherein: - said nanostructured surface is made of a material having a surface energy of less than 25 mJ/m 2, preferably less than 20 mJ/m 2, and comprises an array of contiguous cells defining cavities, the cavities of the cells being separated from each other by intermediate solid material walls, and opened to the environment and - the cavities have an average height and an average radius which meet the conditions: R ≥ 5 nm, preferably R ≥ 10 nm; R ≤ 250 nm, preferably R ≤ 200 nm, better R ≤ 150 nm and more preferably R ≤ 100 nm; and H ≤ 3R. - said nanostructured surface is made of a material having a surface energy of less than 25 mJ/m 2, preferably less than 20 mJ/m 2, and comprises an array of contiguous cells defining cavities, the cavities of the cells being separated from each other by intermediate solid material walls, and opened to the environment and - the cavities have an average height and an average radius which meet the conditions: R ≥ 5 nm, preferably R ≥ 10 nm; R ≤ 250 nm, preferably R ≤ 200 nm, better R ≤ 150 nm and more preferably R ≤ 100 nm; and H ≤ 3R. R ≥ 5 nm, preferably R ≥ 10 nm; R ≤ 250 nm, preferably R ≤ 200 nm, better R ≤ 150 nm and more preferably R ≤ 100 nm; and H ≤ 3R.
A composition comprising: • a metal salt solution comprising: • a metal ion selected from the group consisting of Zr, Al, Ti, Hf, W, Mo, Sn, In, Ga, Zn and combinations thereof; and • a counter ion selected from the group consisting of nitrates, sulfates, acetates, fluorinated alkylacetates, fluorinated alkylsulfonates, acrylates, methacrylates and combinations thereof; and • a solvent; • a stabilizer comprising a lactone wherein the stabilizer is present in the composition at a content of no more than 10%; and • an optional additive selected from the group consisting of catalysts, crosslinkers, photoacid generators, organic polymers, inorganic polymers, surfactants, wetting agents, anti-foam agents, thixotropic agents and combinations thereof. • a metal salt solution comprising: • a metal ion selected from the group consisting of Zr, Al, Ti, Hf, W, Mo, Sn, In, Ga, Zn and combinations thereof; and • a counter ion selected from the group consisting of nitrates, sulfates, acetates, fluorinated alkylacetates, fluorinated alkylsulfonates, acrylates, methacrylates and combinations thereof; and • a solvent; • a metal ion selected from the group consisting of Zr, Al, Ti, Hf, W, Mo, Sn, In, Ga, Zn and combinations thereof; and • a counter ion selected from the group consisting of nitrates, sulfates, acetates, fluorinated alkylacetates, fluorinated alkylsulfonates, acrylates, methacrylates and combinations thereof; and • a solvent; • a stabilizer comprising a lactone wherein the stabilizer is present in the composition at a content of no more than 10%; and • an optional additive selected from the group consisting of catalysts, crosslinkers, photoacid generators, organic polymers, inorganic polymers, surfactants, wetting agents, anti-foam agents, thixotropic agents and combinations thereof.
A run-flat tire comprising a carcass extending between bead cores each disposed in a first bead portion and a second bead portion, through a tread portion and sidewall portions, a pair of side reinforcing rubber layers made of rubber having a high hardness, and each having a crescent cross-sectional shape and disposed axially inside the carcass in each sidewall portion, and a pair of sidewall rubber components each disposed axially outside the carcass in each sidewall portion, wherein the side reinforcing rubber layers comprise a first side reinforcing rubber layer disposed in the side of the first bead portion, and a second side reinforcing rubber layer disposed in the side of the second bead portion, wherein the sidewall rubber components comprise a first sidewall rubber component disposed in the side of the first bead portion, and a second sidewall rubber component disposed in the side of the second bead portion, characterized in that at a tire maximum-width position in a tire cross section including a tire axis under a standard condition in which the tire is mounted on a standard rim and is inflated to a standard pressure, but no tire load is loaded, the first side reinforcing rubber layer has a thickness B1 greater than a thickness B2 of the second side reinforcing rubber layer, and the first sidewall rubber component has a thickness A1 smaller than a thickness A2 of the second sidewall rubber component.
A gas sensor, comprising a thermal conductivity detector, wherein the gas sensor comprises a substrate and a support material, wherein said thermal conductivity detector comprises an elongate multi-layered sensing element which is supported by the support material and, thus, is suspended so as to be separate from the substrate, wherein the elongate multi-layered sensing element is electrically heated by passing an electrical current through it; and a change in the steady-state temperature of the elongate multi-layered sensing element results in a change in its resistance thus that, by sensing the resistance change, a change in gas composition is identified, wherein said elongate multi-layered sensing element comprises an outer layer and an inner layer, the outer layer having a higher resistivity than the inner layer and a higher temperature coefficient of resistance than the inner layer, and wherein said outer layer is metallic and the inner layer is metallic.
A method, comprising: receiving, from a controller device, controller input that identifies a pose of a user's hand, including identifying postures of a plurality of fingers (204, 206, 208, 210) of the user's hand; determining, by a computing device, a degree of similarity of the controller input to a predefined target input, wherein determining the degree of similarity includes determining deviations of values of the controller input that identify the postures of the plurality of fingers from corresponding values of the predefined target input; rendering in a virtual space a virtual hand that corresponds to the controller device, characterized in that when the degree of similarity exceeds a predefined threshold, then the virtual hand is rendered so that a pose of the virtual hand transitions to a predefined hand pose, such that postures of fingers of the virtual hand corresponding to the plurality of fingers of the user's hand are animated transitioning to predefined finger postures of the predefined hand pose, wherein the pose of the user's hand approximates the predefined hand pose when the degree of similarity exceeds the predefined threshold, and wherein when the degree of similarity does not exceed the predefined threshold, then the virtual hand is rendered so that the pose of the virtual hand dynamically changes in response to changes in the controller input. receiving, from a controller device, controller input that identifies a pose of a user's hand, including identifying postures of a plurality of fingers (204, 206, 208, 210) of the user's hand; determining, by a computing device, a degree of similarity of the controller input to a predefined target input, wherein determining the degree of similarity includes determining deviations of values of the controller input that identify the postures of the plurality of fingers from corresponding values of the predefined target input; rendering in a virtual space a virtual hand that corresponds to the controller device, characterized in that when the degree of similarity exceeds a predefined threshold, then the virtual hand is rendered so that a pose of the virtual hand transitions to a predefined hand pose, such that postures of fingers of the virtual hand corresponding to the plurality of fingers of the user's hand are animated transitioning to predefined finger postures of the predefined hand pose, wherein the pose of the user's hand approximates the predefined hand pose when the degree of similarity exceeds the predefined threshold, and wherein when the degree of similarity does not exceed the predefined threshold, then the virtual hand is rendered so that the pose of the virtual hand dynamically changes in response to changes in the controller input.
A method for determining if a target load is engaged by a load supporting member of a material handling vehicle, the material handling vehicle including a load sensor, the method comprising: defining a plurality of detection zones, via the load sensor, arranged sequentially along the load supporting member; manipulating the material handling vehicle to receive the target load with the load supporting member; determining if the target load sequentially transitions through at least two of the plurality of detection zones as the material handling vehicle receives the target load; upon determining that the target load sequentially transitions through at least two of the plurality of detection zones, determining if a number of the plurality of detections zones traversed by the target load is greater than or equal to the predetermined minimum number of the plurality of detection zones required for the load supporting member to engage the target load for transport; and upon determining that the number of the plurality of detection zones traversed by the target load is greater than or equal to the predetermined minimum number, providing an indication that the target load is engaged by the load supporting member and ready for transport. defining a plurality of detection zones, via the load sensor, arranged sequentially along the load supporting member; manipulating the material handling vehicle to receive the target load with the load supporting member; determining if the target load sequentially transitions through at least two of the plurality of detection zones as the material handling vehicle receives the target load; upon determining that the target load sequentially transitions through at least two of the plurality of detection zones, determining if a number of the plurality of detections zones traversed by the target load is greater than or equal to the predetermined minimum number of the plurality of detection zones required for the load supporting member to engage the target load for transport; and upon determining that the number of the plurality of detection zones traversed by the target load is greater than or equal to the predetermined minimum number, providing an indication that the target load is engaged by the load supporting member and ready for transport.
Fastener for coupling a housing, such as a connector housing or an adapter housing, on a corrugated tube, comprising a fastener body, a coupler for attaching the fastener body to the housing and at least one body retainer that can be inserted into a corrugation of the tube for fixing the fastener body in an axial direction A on the tube, wherein the fastener comprises at least two body parts (18, 18') that can be assembled to the fastener body, and wherein each body part (18, 18') comprises a coupler and a body retainer.
A method for adjusting the height of a height-adjustable motor vehicle, preferably a commercial vehicle, comprising: determining a current mass, preferably a current total mass, of the motor vehicle by means of a mass estimator which estimates the current mass on the basis of at least one detected motor drive force and at least one detected acceleration of the motor vehicle and/or on the basis of at least one detected motor braking force and at least one detected deceleration of the motor vehicle; and adapting a height of the motor vehicle on the basis of the determined current mass of the motor vehicle.
Method for finding a next edge cloud for a mobile user device in a mobile communication network for cloud processing, wherein the network comprises at least two base stations (201, 202, 203) with computing access point functionality and the base stations being part of a mobile edge computing, MEC, cloud, wherein the method comprises the steps of: a) the mobile user device sending a request for usage privilege for cloud processing to a connecting base station, b) the connecting base station accepting the cloud processing request, c) the mobile user device offloading computation processing data to the mobile edge computing cloud via the connecting base station and the mobile user device also sending current localization information of the mobile user device to the connecting base station, d) the mobile edge computing cloud processing the computation processing data and determining an expected next base station based on the received localization information, e) the mobile edge computing cloud delivering the processed computation processing data to the determined expected next base station, when the user mobile device has moved from the network cell serviced by the connecting base station to the network cell of the determined expected next base station or to the connecting base station, when the mobile user device has not moved out of the network cell serviced by the connecting base station; wherein in step e) the mobile edge computing cloud predicts a possible route of the mobile user device based on the current localization information of the mobile user device and based on a history of localization information of the mobile user device with a machine learning algorithm, and wherein for each mobile user device a history of localization is stored in the mobile edge computing cloud. a) the mobile user device sending a request for usage privilege for cloud processing to a connecting base station, b) the connecting base station accepting the cloud processing request, c) the mobile user device offloading computation processing data to the mobile edge computing cloud via the connecting base station and the mobile user device also sending current localization information of the mobile user device to the connecting base station, d) the mobile edge computing cloud processing the computation processing data and determining an expected next base station based on the received localization information, e) the mobile edge computing cloud delivering the processed computation processing data to the determined expected next base station, when the user mobile device has moved from the network cell serviced by the connecting base station to the network cell of the determined expected next base station or to the connecting base station, when the mobile user device has not moved out of the network cell serviced by the connecting base station;
A method of controlling a garment care device, the garment care device comprising a steam chamber, a water pump, and a user trigger means to activate the water pump for dosing water in the steam chamber, the method being characterized in that it comprises the steps of: - determining, upon the user trigger means is activated, a water flow rate for the water pump, based on: a) the previous OFF duration (d_OFF) during which the user trigger means was not activated for the previous time, b) the previous ON duration (d_ON) during which the user trigger means was activated for the previous time, - activating the water pump with said water flow rate. - determining, upon the user trigger means is activated, a water flow rate for the water pump, based on: a) the previous OFF duration (d_OFF) during which the user trigger means was not activated for the previous time, b) the previous ON duration (d_ON) during which the user trigger means was activated for the previous time, a) the previous OFF duration (d_OFF) during which the user trigger means was not activated for the previous time, b) the previous ON duration (d_ON) during which the user trigger means was activated for the previous time, - activating the water pump with said water flow rate.
A system for evaluating or treating an eye, the system comprising: an input for receiving an optical aberration signal wherein the input is coupled to a wavefront sensor; a module coupled to the input, the module operable to determine a volumetric point spread function from the aberration signal, wherein the volumetric point spread function comprises a point spread function at a plurality of locations spread throughout a distance range from a cornea of the eye, the retina being disposed in or near the distance range; and an output coupled to the module, the output operable to transmit signals corresponding to a graphical representation of the volumetric point spread function, wherein the module is further configured to generate, before the treatment, a post-treatment volumetric point spread function so that the graphical representation allows a comparison of the volumetric point spread function with the post-treatment volumetric point spread function. an input for receiving an optical aberration signal wherein the input is coupled to a wavefront sensor; a module coupled to the input, the module operable to determine a volumetric point spread function from the aberration signal, wherein the volumetric point spread function comprises a point spread function at a plurality of locations spread throughout a distance range from a cornea of the eye, the retina being disposed in or near the distance range; and an output coupled to the module, the output operable to transmit signals corresponding to a graphical representation of the volumetric point spread function, wherein the module is further configured to generate, before the treatment, a post-treatment volumetric point spread function so that the graphical representation allows a comparison of the volumetric point spread function with the post-treatment volumetric point spread function.
A fused cast refractory product with a high zirconia content comprising, as a percentage by weight based on the oxides: • ZrO 2 + HfO 2: > 85%; • SiO 2: 6% to 12%; • Al 2 O 3: 0.4% to 1%; • Y 2 O 3: ≤ 0.2%; • a dopant selected from the group formed by Nb 2 O 5, Ta 2 O 5, and mixtures thereof. • ZrO 2 + HfO 2: > 85%; • SiO 2: 6% to 12%; • Al 2 O 3: 0.4% to 1%; • Y 2 O 3: ≤ 0.2%; • a dopant selected from the group formed by Nb 2 O 5, Ta 2 O 5, and mixtures thereof.
A SIM card IC module (11, 101) comprising a board (14, 114), a circuit section having a plurality of electronic components mounted on a mounting surface (14A, 114A) of the board (14, 114), and a loop antenna (20, 51, 61, 71, 81) connected to the circuit section, and adapted for constituting a SIM card (10, 40,, 90, 95, 100) by accommodating the IC module (11, 101) in a recessed portion of a base member formed in a plate shape, wherein the loop antenna comprises a horizontal portion (34, 45), which is arranged to be parallel to the mounting surface (14A, 114A); the horizontal portion (34, 35) is arranged at a position shifted from the mounting surface (14A, 114A) by a predetermined dimension along a thickness direction of the board (14, 114), and characterized in that the loop antenna is arranged to circulate along a surface which is arranged to be at a right angle to the mounting surface (14A, 114A).