mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid developer comprising toner particles comprising a resin comprising a polyester and a pigment, wherein the toner particles are dispersed in an insulating liquid in the presence of a dispersant, wherein the insulating liquid has a boiling point of 300°C or lower, the viscosity of the insulating liquid at 25°C is 0.01 mPa•s or more and 15 mPa•s or less as measured according to the description, and the insulating liquid has a peak intensity ratio of a methyl group calculated by the formula : Peak Intensity Ratio % of Methyl Groups = A A + B × 100 wherein A is a peak intensity ascribed to CH 3 stretching vibration when measured with a Fourier transform infrared spectrometer, B is a total peak intensity ascribed to CH 2 stretching vibration and CH stretching vibration, of 25% or more, as measured according to the description, and wherein the average circularity of the toner particles in the liquid developer - as measured according to the description - is 0.85 or more and 0.94 or less.
A bearing arrangement for mounting a wheel and an electric motor or generator having a stator and a rotor to a vehicle, the bearing arrangement comprising a bearing block , wherein the bearing block includes a first coupling element for coupling to a first radial wall of the rotor and the wheel, and a second coupling element for coupling to the stator and/or the vehicle, with a first bearing mounted between the first coupling element and the second coupling element to allow the first coupling element and the second coupling element to rotate relative to each other, wherein the first coupling element includes a mounting flange including a plurality of bolt holes arranged to extend through the mounting flange for receiving a respective bolt at a first aperture of the bolt holes for coupling the rotor and the wheel to the first coupling element , characterised in that a plurality of sealing elements are arranged to be mounted over a second aperture of the respective bolt holes for inhibiting the ingress of material through the bolt hole into the electric motor or generator, wherein the plurality of sealing elements are coupled together, wherein each sealing element includes a recess to allow a bolt to extend through a respective bolt hole without the bolt coming into contact with the sealing element .
A method for wireless communication at a user equipment, UE, comprising: receiving a channel state information, CSI, request from a base station for a plurality of carriers in a first subframe of a carrier of the plurality of carriers, wherein the plurality of carriers comprises one of: at least one carrier configured for frequency division duplexing, FDD, aggregated with at least one other carrier configured for time division duplexing, TDD, or a first TDD carrier having a first uplink-downlink configuration aggregated with a second TDD carrier having a second uplink-downlink configuration different from the first uplink-downlink configuration; determining a second subframe of the carrier in which to report the CSI for the plurality of carriers based on the first subframe; determining a separate reference subframe for each carrier of the plurality of carriers for determining the CSI based on the second subframe and a hybrid automatic retransmission, HARQ, timeline for each said carrier, wherein the separate reference subframe is a valid downlink subframe; determining the CSI for the plurality of carriers based on the separate reference subframe for each said carrier; and reporting the CSI for the plurality of carriers to the base station on the second subframe of the carrier. receiving a channel state information, CSI, request from a base station for a plurality of carriers in a first subframe of a carrier of the plurality of carriers, wherein the plurality of carriers comprises one of: at least one carrier configured for frequency division duplexing, FDD, aggregated with at least one other carrier configured for time division duplexing, TDD, or a first TDD carrier having a first uplink-downlink configuration aggregated with a second TDD carrier having a second uplink-downlink configuration different from the first uplink-downlink configuration; determining a second subframe of the carrier in which to report the CSI for the plurality of carriers based on the first subframe; determining a separate reference subframe for each carrier of the plurality of carriers for determining the CSI based on the second subframe and a hybrid automatic retransmission, HARQ, timeline for each said carrier, wherein the separate reference subframe is a valid downlink subframe; determining the CSI for the plurality of carriers based on the separate reference subframe for each said carrier; and reporting the CSI for the plurality of carriers to the base station on the second subframe of the carrier.
A method executed by a measurement device connected to an optical sensor and a display device which is a tablet information terminal independent from the measurement device and configured to communicate with the measurement device via a network communication, wherein a predetermined Web browser on operation in the display device sequentially displays, on the display device, a plurality of different images for adjustment and the measurement device measures, at a predetermined timing, light intensity of the display device displaying each image for adjustment using the optical sensor, the method comprising: a step (S107) of transmitting, by the measurement device, to the display device and via the network communication, display control information for causing the Web browser to transmit a content request to the measurement device and to display content each time the content is received; a step (S111) of, in response to the content request by the Web browser, transmitting, by the measurement device, to the display device, content comprising an image for adjustment and display control information related to content to be displayed next; a step (S209) of displaying the image for adjustment by the Web browser; a step (S114) of measuring, by the measurement device, the light intensity of the display device displaying the image for adjustment using the optical sensor; and a changing step (S109) of changing, by the measurement device, content to be transmitted, so as to correspond to the display control information in accordance with the timing when the optical sensor performs a measurement. a step (S107) of transmitting, by the measurement device, to the display device and via the network communication, display control information for causing the Web browser to transmit a content request to the measurement device and to display content each time the content is received; a step (S111) of, in response to the content request by the Web browser, transmitting, by the measurement device, to the display device, content comprising an image for adjustment and display control information related to content to be displayed next; a step (S209) of displaying the image for adjustment by the Web browser; a step (S114) of measuring, by the measurement device, the light intensity of the display device displaying the image for adjustment using the optical sensor; and a changing step (S109) of changing, by the measurement device, content to be transmitted, so as to correspond to the display control information in accordance with the timing when the optical sensor performs a measurement.
A process for curing an elastomer composition in the presence of oxygen, the process comprising the steps of: A) mixing at least one elastomer which is a saturated ethylene-propylene terpolymer, at least one non-elastomeric polymer comprising at least two different monomers in polymerized form, wherein the elastomer and the copolymer are present in the elastomer composition at a weight ratio from 50:50 to 75:25, and at least one organic peroxide formulation to provide a mixture, wherein the non-elastomeric polymer is saturated or unsaturated, and said polymer does not comprise chlorinated polyethylene or chlorosulfonated polyethylene; and wherein the organic peroxide formulation comprises i) at least one organic peroxide, ii) at least one moiety chosen from bis-, tri- and higher poly-maleimides, bis-, tri- and higher poly-citraconimides, and p-phenylenediamine based antiozonants, and iii) at least one sulfur accelerator; B) curing said mixture in the presence of oxygen. A) mixing at least one elastomer which is a saturated ethylene-propylene terpolymer, at least one non-elastomeric polymer comprising at least two different monomers in polymerized form, wherein the elastomer and the copolymer are present in the elastomer composition at a weight ratio from 50:50 to 75:25, and at least one organic peroxide formulation to provide a mixture, wherein the non-elastomeric polymer is saturated or unsaturated, and said polymer does not comprise chlorinated polyethylene or chlorosulfonated polyethylene; and wherein the organic peroxide formulation comprises i) at least one organic peroxide, ii) at least one moiety chosen from bis-, tri- and higher poly-maleimides, bis-, tri- and higher poly-citraconimides, and p-phenylenediamine based antiozonants, and iii) at least one sulfur accelerator; B) curing said mixture in the presence of oxygen.
A hot-dip galvanized steel sheet having an hole expansion ratio (HER) of 80% or greater, a tensile strength of 650MPa or less, and an yield ratio of 0.57 or less, the hot-dip galvanized steel sheet comprising a base steel sheet and a hot-dip galvanized layer formed on the base steel sheet, the base steel sheet comprising, by wt%, carbon (C):0.02% to 0.08%, manganese (Mn):1.3% to 2.1%, silicon (Si):0.3% or less excluding 0%, chromium (Cr):1.0% or less excluding 0%, phosphorus (P):0.1% or less excluding 0%, sulfur (S): 0.01% or less excluding 0%, nitrogen (N):0.01% or less excluding 0%, acid soluble aluminum (sol.Al): 0.02% to 0.06%, molybdenum (Mo):0.2% or less excluding 0%, boron (B):0.003% or less excluding 0%, and a balance of iron (Fe) and inevitable impurities, wherein the base steel sheet has a matrix microstructure comprising 90% or more by area of ferrite, 3% or less by area of bainite as described in Formula 1 below, and martensite as a remainder, wherein the base steel sheet has an a/b ratio of 0.7 or less, where (a) refers to a C+Mn content of the matrix microstructure of the base steel sheet in a surface region defined up to an average depth of 10 μm, and (b) refers to a C+Mn content of the matrix at a 1/4 thickness position of the base steel sheet, B % = BA / FA + MA + BA × 100 where FA: ferrite area, BA: bainite area, and MA: martensite area.
A wearable device , comprising: a memory element configured to store a plurality of user profiles; and processing circuitry coupled to the memory element, the processing circuitry is configured to perform the method as defined in claim 10. a memory element configured to store a plurality of user profiles; and processing circuitry coupled to the memory element, the processing circuitry is configured to perform the method as defined in claim 10.
A controller entity for facilitating initialization of an aggregator functionality in a first communication device in a cellular communication network , the controller entity being configured to: obtain measurement information from the first communication device; determine values for a plurality of aggregator parameters in accordance with said measurement information, said values being required to initialize the aggregator functionality at the first communication device, wherein the aggregator functionality comprises providing radio coverage to a plurality of second communication devices within a coverage area of the first communication device, and wherein determining the values for the plurality of aggregator parameters comprises determining a set of aggregator identification parameters by selecting a Physical layer Cell Identity, PCI, from a plurality of PCIs for assignment to the first communication device, wherein selecting a PCI comprises selecting a PCI least likely to result in contention, each base station entity in the cellular communication network having a respective PCI; and transmit the determined parameter values to the first communication device. obtain measurement information from the first communication device; determine values for a plurality of aggregator parameters in accordance with said measurement information, said values being required to initialize the aggregator functionality at the first communication device, wherein the aggregator functionality comprises providing radio coverage to a plurality of second communication devices within a coverage area of the first communication device, and wherein determining the values for the plurality of aggregator parameters comprises determining a set of aggregator identification parameters by selecting a Physical layer Cell Identity, PCI, from a plurality of PCIs for assignment to the first communication device, wherein selecting a PCI comprises selecting a PCI least likely to result in contention, each base station entity in the cellular communication network having a respective PCI; and transmit the determined parameter values to the first communication device.
A pharmaceutical composition comprising pridopidine or a pharmaceutically acceptable salt thereof for use in treating a subject afflicted with fragile X syndrome (FXS).
A dental oven, comprising an oven head, a firing chamber bottom adapted to receive a dental restoration part , and a firing chamber above the firing chamber bottom , the oven head being liftable in relation to the firing chamber bottom , wherein at least one optical sensor is arranged on or in the vicinity of the dental oven laterally of the firing chamber and is directed towards a detection area which extends between the firing chamber bottom and the liftable oven head in the opened state of the oven, wherein the optical sensor comprises an output connection which is connected to an evaluation device for evaluating the dental restoration part and/or a muffle and/or a press plunger and/or a firing tray with regard to its dimension and/or its shape and/or its position, wherein the sensor has a detection area which extends substantially conically from the sensor forwards towards the firing chamber and which extends at least partially in the firing chamber and through which, especially the central longitudinal axis of the firing chamber also extends, and wherein the optical sensor is designed as a CCD unit which is designed as a thermal imaging camera which has its sensitivity maximum in the infrared range, by which especially the temperature of the dental restoration part and/or of the muffle and/or of the press plunger and/or of the firing tray is simultaneously detectable.
A heat transfer system between a heat source and a heat sink comprising: a thermal pad between the heat source and the heat sink , wherein the heat source and the heat sink are joined by relative sliding motion; and a heat transfer structure to urge the thermal pad into contact with the heat source and simultaneously urge the heat sink into contact with the thermal pad ; the heat transfer structure comprising a framework , the framework holding a plurality of metal pieces , the trailing edge of each of the metal pieces in contact with a lever , wherein each lever is mounted on a shaft secured to the framework , and the trailing edge of each of the metal pieces is located below a lever , characterized in that each lever is actuated by contacting with the relatively moving heat source such that the shaft permits a pivoting rotation of the lever causing a downward force to be applied to the trailing edge of a metal piece , and the levers cause the metal pieces to force the framework into firm contact with the thermal pad . a thermal pad between the heat source and the heat sink , wherein the heat source and the heat sink are joined by relative sliding motion; and a heat transfer structure to urge the thermal pad into contact with the heat source and simultaneously urge the heat sink into contact with the thermal pad ; the heat transfer structure comprising a framework , the framework holding a plurality of metal pieces , the trailing edge of each of the metal pieces in contact with a lever , wherein each lever is mounted on a shaft secured to the framework , and the trailing edge of each of the metal pieces is located below a lever , characterized in that each lever is actuated by contacting with the relatively moving heat source such that the shaft permits a pivoting rotation of the lever causing a downward force to be applied to the trailing edge of a metal piece , and the levers cause the metal pieces to force the framework into firm contact with the thermal pad .
A magazine holder for a firearm, comprising: two actuating elements and a spring , wherein the first actuating element has a locking extension protruding in the direction of the weapon median plane for the temporary attachment of a magazine in the firearm, and a first actuating extension , wherein the second actuating element has a second actuating extension , and wherein the two actuating elements are operatively connected to one another such that the locking extension releases the fastening of the magazine counter to the tension of the spring during a release movement onto one of the two actuating elements , characterized in that the first and second actuating elements are each designed as one piece, the second actuating element has a bearing extension on an end section facing away from the second actuating extension and connected by a connecting section , further in that the bearing extension is of thickened design, preferably of barrel-shaped or roller-shaped design, with respect to the end section in at least one spatial direction, and in that the first actuating element has a substantially shape-complementary bearing opening for receiving the bearing extension of the second actuating element in an assembling position. two actuating elements and a spring , wherein the first actuating element has a locking extension protruding in the direction of the weapon median plane for the temporary attachment of a magazine in the firearm, and a first actuating extension , wherein the second actuating element has a second actuating extension , and wherein the two actuating elements are operatively connected to one another such that the locking extension releases the fastening of the magazine counter to the tension of the spring during a release movement onto one of the two actuating elements , characterized in that the first and second actuating elements are each designed as one piece, the second actuating element has a bearing extension on an end section facing away from the second actuating extension and connected by a connecting section , further in that the bearing extension is of thickened design, preferably of barrel-shaped or roller-shaped design, with respect to the end section in at least one spatial direction, and in that the first actuating element has a substantially shape-complementary bearing opening for receiving the bearing extension of the second actuating element in an assembling position.
A wireless transmit/receive unit, WTRU, (102; 204) configured to perform phased reconfiguration from a source cell to a target cell , wherein the WTRU is initially connected to the source cell, the WTRU comprising: a processor operatively coupled to a transceiver ; the WTRU configured to: execute a first set of functions with the source cell, wherein the first set of functions includes transmitting uplink, UL, data; in response to detection of at least one of a first set of preconfigured trigger conditions, wherein the first set of preconfigured trigger conditions include UL resources in the target cell becoming available, transmit signaling radio bearers, SRBs, to the target cell while continuing to execute the first set of functions with the source cell; and in response to detection of at least one of a second set of preconfigured trigger conditions, cease executing at least a subset of the first set of functions with the source cell. a processor operatively coupled to a transceiver ; the WTRU configured to: execute a first set of functions with the source cell, wherein the first set of functions includes transmitting uplink, UL, data; in response to detection of at least one of a first set of preconfigured trigger conditions, wherein the first set of preconfigured trigger conditions include UL resources in the target cell becoming available, transmit signaling radio bearers, SRBs, to the target cell while continuing to execute the first set of functions with the source cell; and in response to detection of at least one of a second set of preconfigured trigger conditions, cease executing at least a subset of the first set of functions with the source cell. execute a first set of functions with the source cell, wherein the first set of functions includes transmitting uplink, UL, data; in response to detection of at least one of a first set of preconfigured trigger conditions, wherein the first set of preconfigured trigger conditions include UL resources in the target cell becoming available, transmit signaling radio bearers, SRBs, to the target cell while continuing to execute the first set of functions with the source cell; and in response to detection of at least one of a second set of preconfigured trigger conditions, cease executing at least a subset of the first set of functions with the source cell.
A method of preparing of an oxygen selective adsorbent containing Ba, Sr and Mg, the method comprising the steps of: (a) reacting a barium-containing compound with a magnesium precursor and a strontium precursor, wherein a second mixed solution of the magnesium precursor and the strontium precursor is slowly injected into a first mixed solution of the barium containing compound and a carbonate compound and reacted with stirring at 50 to 120°C, wherein the first mixed solution is prepared by mixing the barium-containing compound and the carbonate compound in distilled water, and dispersing the mixture by using an ultrasonic disperser and a stirrer to dissolve the barium-containing compound and the carbonate compound at room temperature, and wherein the second mixed solution is prepared by mixing the magnesium precursor and the strontium precursor in distilled water, (b) drying and sintering the product obtained in step (a), wherein the sintering is carried out at about 700°C to 800°C, wherein the mole ratio of Ba and Sr is 9:1 to 5:5, and the ratio mole number of Mg / mole number of (Ba + Sr) is more than 0 and 2 or less. (a) reacting a barium-containing compound with a magnesium precursor and a strontium precursor, wherein a second mixed solution of the magnesium precursor and the strontium precursor is slowly injected into a first mixed solution of the barium containing compound and a carbonate compound and reacted with stirring at 50 to 120°C, wherein the first mixed solution is prepared by mixing the barium-containing compound and the carbonate compound in distilled water, and dispersing the mixture by using an ultrasonic disperser and a stirrer to dissolve the barium-containing compound and the carbonate compound at room temperature, and wherein the second mixed solution is prepared by mixing the magnesium precursor and the strontium precursor in distilled water, a second mixed solution of the magnesium precursor and the strontium precursor is slowly injected into a first mixed solution of the barium containing compound and a carbonate compound the first mixed solution is prepared by mixing the barium-containing compound and the carbonate compound in distilled water, and dispersing the mixture by using an ultrasonic disperser and a stirrer to dissolve the barium-containing compound and the carbonate compound at room temperature, and wherein the second mixed solution is prepared by mixing the magnesium precursor and the strontium precursor in distilled water, (b) drying and sintering the product obtained in step (a), wherein the sintering is carried out at about 700°C to 800°C, wherein the mole ratio of Ba and Sr is 9:1 to 5:5, and the ratio mole number of Mg / mole number of (Ba + Sr) is more than 0 and 2 or less.