mhurhangee/patent-ind-claim-en huggingface dataset:
A method for outputting a haptic output signal comprising: receiving, by a processor , a signal ; generating, by the processor , a spectrogram based at least in part on the signal; determining, by the processor , a haptic effect based at least in part on the spectrogram; generating, by the processor , a haptic output signal based at least in part on the haptic effect, the haptic output signal configured to cause a haptic output device to output the haptic effect; and outputting, by the processor , the haptic output signal ; characterized in that the determination by the processor of the haptic effect further comprises the steps of: performing a visual analysis of the spectrogram, by the processor , to detect a pattern within the spectrogram; determining, by the processor , a haptic effect configured to mimic the pattern within the spectrogram by, for each of a plurality of distinct frequency ranges: i) analysing the spectrogram over a distinct frequency range for a characteristic, ii) determining the haptic effect corresponding to the characteristic; and iii) in response to locating the characteristic in the spectrogram, selecting the haptic effect. receiving, by a processor , a signal ; generating, by the processor , a spectrogram based at least in part on the signal; determining, by the processor , a haptic effect based at least in part on the spectrogram; generating, by the processor , a haptic output signal based at least in part on the haptic effect, the haptic output signal configured to cause a haptic output device to output the haptic effect; and outputting, by the processor , the haptic output signal ; characterized in that the determination by the processor of the haptic effect further comprises the steps of: performing a visual analysis of the spectrogram, by the processor , to detect a pattern within the spectrogram; determining, by the processor , a haptic effect configured to mimic the pattern within the spectrogram by, for each of a plurality of distinct frequency ranges: i) analysing the spectrogram over a distinct frequency range for a characteristic, ii) determining the haptic effect corresponding to the characteristic; and iii) in response to locating the characteristic in the spectrogram, selecting the haptic effect. performing a visual analysis of the spectrogram, by the processor , to detect a pattern within the spectrogram; determining, by the processor , a haptic effect configured to mimic the pattern within the spectrogram by, for each of a plurality of distinct frequency ranges: i) analysing the spectrogram over a distinct frequency range for a characteristic, ii) determining the haptic effect corresponding to the characteristic; and iii) in response to locating the characteristic in the spectrogram, selecting the haptic effect. i) analysing the spectrogram over a distinct frequency range for a characteristic, ii) determining the haptic effect corresponding to the characteristic; and iii) in response to locating the characteristic in the spectrogram, selecting the haptic effect.
A computer-implemented method for earth modeling of a geologic volume of interest, the method comprising: a. receiving , at a computer processor, a rock model; b. specifying boundary conditions ; c. initiating a stress field in at least part of the rock model; d. modeling , via the computer processor, resultant displacements using a finite difference method, wherein modeling the resultant displacements using the finite difference method includes decreasing kinetic energy associated with the rock model via a numerical attenuation mechanism, and applying a Virial Theorem so that the potential energy associated with the rock model decreases in lock-step; e. calculating , via the computer processor, at least one of resultant strains, stresses, elastic energies and elastic stiffnesses based on the resultant displacements; and f. predicting physical changes in the rock model using the at least one of resultant strains, stresses, elastic energies and elastic stiffnesses. a. receiving , at a computer processor, a rock model; b. specifying boundary conditions ; c. initiating a stress field in at least part of the rock model; d. modeling , via the computer processor, resultant displacements using a finite difference method, wherein modeling the resultant displacements using the finite difference method includes decreasing kinetic energy associated with the rock model via a numerical attenuation mechanism, and applying a Virial Theorem so that the potential energy associated with the rock model decreases in lock-step; e. calculating , via the computer processor, at least one of resultant strains, stresses, elastic energies and elastic stiffnesses based on the resultant displacements; and f. predicting physical changes in the rock model using the at least one of resultant strains, stresses, elastic energies and elastic stiffnesses.
A cooled structure of a gas turbine engine, comprising; a main body having a leading edge , a trailing edge , a first side portion , a second side portion , and a cavity ; a first set of cooling air micro-channels extending from said cavity and arranged along the first side portion ; a second set of cooling air micro-channels extending from said cavity and arranged along the second side portion ; and wherein each set of cooling air micro-channels further comprises at least one transition manifold in fluid communication with an adjacent micro-channel and in fluid communication with at least one of an intake end , an exhaust end ; and wherein the intake end is in fluid communication with the cavity and the exhaust end is in fluid communication with a gas turbine hot gas path , and wherein the exhaust ends are arranged at the first side portion and the second side portion , respectively characterized in that each micro-channel comprises a t-shaped portion positioned adjacent each other and in fluid communication with the at least one transition manifold , and wherein the t-shaped portion of each micro-channel is in fluid communication with an adjacent t-shaped portion . a main body having a leading edge , a trailing edge , a first side portion , a second side portion , and a cavity ; a first set of cooling air micro-channels extending from said cavity and arranged along the first side portion ; a second set of cooling air micro-channels extending from said cavity and arranged along the second side portion ; and wherein each set of cooling air micro-channels further comprises at least one transition manifold in fluid communication with an adjacent micro-channel and in fluid communication with at least one of an intake end , an exhaust end ; and wherein the intake end is in fluid communication with the cavity and the exhaust end is in fluid communication with a gas turbine hot gas path , and wherein the exhaust ends are arranged at the first side portion and the second side portion , respectively
A double-sided adhesive sheet sequentially including a first adhesive layer, a transparent acrylic resin layer and a second adhesive layer, wherein each of the first adhesive layer and the second adhesive layer comprises an acrylic adhesive; the first adhesive layer is disposed to adjoin a touch panel; the second adhesive layer is disposed to adjoin a display device module; wherein the first adhesive layer has a 180° peel strength of 31,5 kg/m (800 g/in) to 118.1 kg/m (3000 g/in) with respect to a polycarbonate film at a peeling rate of 300 mm/min and a temperature of 23°C, and the second adhesive layer has a 180° peel strength of 0 to 3,1 kg/m (80 g/in) with respect to a triacetylcellulose (TAC) polarizing film at a peeling speed of 300 mm/min and a temperature of 23°C, wherein the acrylic adhesive included in the first adhesive layer comprises an acrylate monomer having a C 1 -C 12 alkyl group and a functional group-containing copolymerizable monomer, the functional group-containing monomer being present in an amount of 5 wt% to 30 wt% in the acrylic copolymer, and wherein the acrylic adhesive included in the second adhesive layer comprises an acrylate monomer having a C 1 -C 12 alkyl group and a functional group-containing copolymerizable monomer, the functional group-containing monomer being present in an amount of 1 wt% to 5 wt% in the acrylic copolymer.
Use of a surface-active nitrogen-containing compound selected from the group of compounds having the following general formulae I and II wherein R is H or a hydrocarbyl group having 2-24, preferably 6-24, more preferably 8-24 and most preferably 8-18 carbon atoms, G is a hydrocarbyl group having 6-24 carbon atoms or the group E, whereby R and G are selected such that the compound has at least one hydrocarbyl group with 6-24 carbon atoms connected to a nitrogen atom; each E is independently H, CH 3 , -CH 2 CH 3 or an acyl group - C(=O)R 1 , wherein each -C(=O)R 1 is independently an acyl group having 2-24 carbon atoms; provided that at least one, preferably at least 2, of the -C(=O)R 1 groups is an acyl group having 2-5 carbon atoms, and at least one -C(=O)R 1 is an acyl group having 6-24 carbon atoms; and provided that when both R is H, then there are at least two of -C(=O)R 1 that are an acyl group having 6-24 carbon atoms; m is 2 or 3, preferably 3, a=1-5, preferably 1-4, more preferably 1-3, and most preferably 1-2; and wherein R' is a hydrocarbyl group having 6-24, more preferably 8-24 and most preferably 8-18 carbon atoms, R" is H, CH 3 or -CH 2 CH 3 ; m, and the group E have the same meaning as in formula (I); provided that at least one of the -C(=O)R 1 groups is an acyl group having 6-24 carbon atoms, and at least one -C(=O)R 1 is an acyl group having 2-5 carbon atoms; and b and c independently is a number 0 - 2; and whereby in formulae I and II the groups E are chosen such that the compound contains 2-7 amide groups, as an anti-agglomerant for gas hydrates.
A polyester resin composition for calendering, which comprises a polyester resin obtained by polymerization of a dicarboxylic acid component and a diol component; and 0.1 part by weight to less than 10 parts by weight of a lubricant based on 100 parts by weight of the polyester resin, wherein the lubricant has a weight reduction rate of 1 to 20% relative to its initial weight when maintained at 150°C for 100 minutes in an isothermal TGA method and a weight reduction rate of 20 to 65% relative to its initial weight when maintained at 200°C for 100 minutes in an isothermal TGA method and a weight reduction rate of 30 to 70% relative to its initial weight when heated at a rate of 20°C/min from 30°C to 350°C in a temperature-elevation type TGA method; wherein the lubricant comprises a combination of a first lubricant and a second lubricant; and wherein the first lubricant has a weight reduction rate of 1 to 12% relative to its initial weight when maintained at 150°C for 100 minutes in an isothermal TGA method; and the second lubricant has a weight reduction rate of 10 to 25% relative to its initial weight when maintained at 150°C for 100 minutes in an isothermal TGA method. wherein the lubricant has a weight reduction rate of 1 to 20% relative to its initial weight when maintained at 150°C for 100 minutes in an isothermal TGA method and a weight reduction rate of 20 to 65% relative to its initial weight when maintained at 200°C for 100 minutes in an isothermal TGA method and a weight reduction rate of 30 to 70% relative to its initial weight when heated at a rate of 20°C/min from 30°C to 350°C in a temperature-elevation type TGA method; wherein the lubricant comprises a combination of a first lubricant and a second lubricant; and wherein the first lubricant has a weight reduction rate of 1 to 12% relative to its initial weight when maintained at 150°C for 100 minutes in an isothermal TGA method; and the second lubricant has a weight reduction rate of 10 to 25% relative to its initial weight when maintained at 150°C for 100 minutes in an isothermal TGA method.
Method for controlling an electrical drive of a door or a door wing, wherein the door or the door wing can be moved by means of the drive in a first direction of travel (S) from an opened position into a closed position and conversely in a second direction of travel (O) from the closed position into the opened position, wherein in order to move the door or the door wing in at least one of the two directions of travel, the drive can be controlled by means of manual force effects (F) on the door or the door wing, and wherein the door or the door wing has at least one side surface which runs in the two directions of travel, wherein in order to move the door or the door wing, the drive is controlled by means of manual force effects (F), which, in one of the directions of travel (S, O), act on the side surface of the door or the door wing or a component arranged thereupon, characterised in that with a movement of the door or the door wing in one of the directions of travel (S, O) and a continuous force effect (F) on the side surface of the door or the door wing in this direction of travel (S, O), the drive is controlled so that the movement of the door or the door wing in the direction of travel (S, O) takes place with a predefined speed.
A pack for cigarettes , having a box part and a lid which is pivotably arranged on the box part , wherein the box part forms a receiving space for a cigarette block , and wherein a collar which protrudes from the box part , which is open at the top, and which, in the closed position of the lid , is encompassed by said lid , is arranged in the box part , and wherein the collar displays means for reducing the size of the receiving space, in particular of the cross section, of the box part , characterized in that the collar displays cupola-type elements for reducing the size of the receiving space, which are formed by material deformation, in particular by embossing, in particular of the cross section of the box part , so as to correspond to the dimensions of the cigarette block .
Cooking appliance , comprising a cooking chamber delimited by cooking chamber walls , a door for closing the cooking chamber , an air guide unit connected to the cooking chamber in a ventilation-communicating manner, an air opening in a cooking chamber wall for connecting the cooking chamber to the air guide unit , a fan which is arranged outside the cooking chamber and inside the air guide unit and is intended for generating an air flow, the air opening being provided with a grid which consists of individual webs in order to form holes or opening segments between the webs , the webs having a structure made of straight web segments which forms a plurality of polygonal holes , in each case a polygonal hole being surrounded by a plurality of the web segments , the web segments being formed in one piece with the cooking chamber wall , characterised in that the web segments each meet at an angle unequal to 90 degrees and unequal to 180 degrees. a cooking chamber delimited by cooking chamber walls , a door for closing the cooking chamber , an air guide unit connected to the cooking chamber in a ventilation-communicating manner, an air opening in a cooking chamber wall for connecting the cooking chamber to the air guide unit , a fan which is arranged outside the cooking chamber and inside the air guide unit and is intended for generating an air flow, the air opening being provided with a grid which consists of individual webs in order to form holes or opening segments between the webs , the webs having a structure made of straight web segments which forms a plurality of polygonal holes , in each case a polygonal hole being surrounded by a plurality of the web segments , the web segments being formed in one piece with the cooking chamber wall , characterised in that the web segments each meet at an angle unequal to 90 degrees and unequal to 180 degrees.
A method for wireless communication performed by a user equipment, UE , comprising: identifying one or more bands; determining whether the UE is configured with a capability associated with the one or more bands to: support a first component carrier for a first priority service, support a second component carrier for a second priority service, and process one or more channels associated with the first priority service and the second priority service on one component carrier; transmitting , to a base station based on the determining, the capability to support one or more component carriers for at least one of the first priority service or the second priority service and process the one or more channels associated with the first priority service and the second priority service on the one component carrier; and receiving , from the base station based on the transmitting, a configuration for at least one of the one or more component carriers. identifying one or more bands; determining whether the UE is configured with a capability associated with the one or more bands to: support a first component carrier for a first priority service, support a second component carrier for a second priority service, and process one or more channels associated with the first priority service and the second priority service on one component carrier; support a first component carrier for a first priority service, support a second component carrier for a second priority service, and process one or more channels associated with the first priority service and the second priority service on one component carrier; transmitting , to a base station based on the determining, the capability to support one or more component carriers for at least one of the first priority service or the second priority service and process the one or more channels associated with the first priority service and the second priority service on the one component carrier; and receiving , from the base station based on the transmitting, a configuration for at least one of the one or more component carriers.
A nanoparticulate composition comprising (a) particles comprising at least one active ingredient, wherein the particles have an effective average particle size in the range from about 70 nm to about 220 nm; and (b) at least one surface stabilizer and/or at least one polymeric stabilizer, the composition comprises (aa) particles of at least one active ingredient selected from the group consisting of (Z)-2-cyano-3-cyclopropyl-3-hydroxy-N-(3-methyl-4-(trifluoromethyl)phenyl) prop-2-enamide, (Z)-2-cyano-3-hydroxy- N -[4-(trifluoromethyl)phenyl]hept-2-en-6-ynamide, 2-cyano-3-cyclopropyl-N-(4-fluorophenyl)-3-hydroxyacrylamide, and salts thereof, and (bb) at least one surface stabilizer and/or at least one polymeric stabilizer, and wherein the effective average particle size is measured by laser light scattering, wherein the effective average particle size is meant that at least 50% of said active agent particles have a particle size, by weight (volume based), of less than the effective average particle size. (a) particles comprising at least one active ingredient, wherein the particles have an effective average particle size in the range from about 70 nm to about 220 nm; and (b) at least one surface stabilizer and/or at least one polymeric stabilizer, the composition comprises (aa) particles of at least one active ingredient selected from the group consisting of (Z)-2-cyano-3-cyclopropyl-3-hydroxy-N-(3-methyl-4-(trifluoromethyl)phenyl) prop-2-enamide, (Z)-2-cyano-3-hydroxy- N -[4-(trifluoromethyl)phenyl]hept-2-en-6-ynamide, 2-cyano-3-cyclopropyl-N-(4-fluorophenyl)-3-hydroxyacrylamide, and salts thereof, and (bb) at least one surface stabilizer and/or at least one polymeric stabilizer, and wherein the effective average particle size is measured by laser light scattering, wherein the effective average particle size is meant that at least 50% of said active agent particles have a particle size, by weight (volume based), of less than the effective average particle size.
A method performed by a source access and mobility function, AMF, for wireless communication, comprising: identifying a handover trigger that triggers a handover from the source access and mobility function, AMF, (205-c, 205-e, 205-g, 205-i, 205-k) to a target AMF (205-d, 205-f, 205-h, 205-j, 205-l); in response to identifying the handover trigger, generating a refreshed intermediate key (320-b, 420-a, 505-b, 605-b) based at least in part on an AMF base key of the source AMF and a first freshness parameter (310-a, 410-a, 510-a, 610-a), wherein the first refresh parameter is a downlink or uplink non-access stratum, NAS, count,; and transmitting the refreshed intermediate key to the target AMF identifying a handover trigger that triggers a handover from the source access and mobility function, AMF, (205-c, 205-e, 205-g, 205-i, 205-k) to a target AMF (205-d, 205-f, 205-h, 205-j, 205-l); in response to identifying the handover trigger, generating a refreshed intermediate key (320-b, 420-a, 505-b, 605-b) based at least in part on an AMF base key of the source AMF and a first freshness parameter (310-a, 410-a, 510-a, 610-a), wherein the first refresh parameter is a downlink or uplink non-access stratum, NAS, count,; and transmitting the refreshed intermediate key to the target AMF
Method for capturing magnetic resonance data from an imaging volume to be captured of a patient in which liquid, in particular blood, is moved such that the liquid flows into the imaging volume on an inflow side and flows out of the imaging volume on an opposite outflow side, wherein the capturing of the magnetic resonance data takes place using a magnetic resonance device and by means of a bSSFP magnetic resonance sequence, in which spins located within the imaging volume are cyclically excited by means of a high-frequency pulse, characterised in that a ramp pulse is used as the high-frequency pulse which establishes a flip angle of the spins which is spatially variable within the imaging volume , wherein the flip angle is selected to be lower on the inflow side from which the liquid flows into the imaging volume than on the outflow side on which the liquid flows out, and increases monotonically, wherein a maximum gradient of the flip angle adjacent to the boundary of the imaging volume forming the inflow side is restricted by a limit value that is determined on the basis of the repetition time of the bSSFP magnetic resonance sequence and the flow velocity of the liquid.