mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement gap configuration method performed by a first node at an access network side, comprising configuring a measurement gap for a User Equipment, UE, wherein the measurement gap comprises at least one of a per-UE measurement gap for the UE, a per-CG measurement gap for each cell group corresponding to the UE, or a per-CC measurement gap for a component carrier corresponding to the UE, and transmitting a configuration content of the measurement gap to a second node at an access network side, characterized in that prior to configuring the measurement gap for the UE, the measurement gap configuration method comprises acquiring request information about the measurement gap from the second node, and the request information comprises at least one of a configuration request or a configuration policy.
A stem-loop primer comprising the nucleotide sequence SEQ ID NO: 1.
A method of transmitting a V2X message by a first V2X communication device, the method comprising: receiving air pollution information from a station; generating (S20100, S21300) a V2X message for providing information related to air pollution, wherein the V2X message includes 1) vehicle control information for setting a driving mode and/or a stop mode of a vehicle based on the air pollution information, and 2) station type information indicating a type of the station which transmits air pollution information to the first V2X communication device; and transmitting (S20200, S21400) the V2X message to a second V2X communication device associated with the vehicle, wherein based on the vehicle control information, the driving mode is set to an eco-driving mode and the stop mode is set to an auto-stop mode, wherein the eco-driving mode is a mode for controlling an engine and transmission of the vehicle according to a preset control algorithm, in order to reduce the amount of air pollutants emitted from vehicle, wherein the auto-stop mode is a mode in which the engine of the vehicle is automatically stopped when the vehicle is stopped for a predetermined period or more, wherein the predetermined period is a period for which the vehicle is stopped in a stop signal of a traffic light or at the bus stop, and characterized in that the station type information includes 1) a first type station directly measuring air pollution data or 2) a second type station using the air pollution data measured by the first type station, and the air pollution information is generated by the station using the air pollution data. receiving air pollution information from a station; generating (S20100, S21300) a V2X message for providing information related to air pollution, wherein the V2X message includes 1) vehicle control information for setting a driving mode and/or a stop mode of a vehicle based on the air pollution information, and 2) station type information indicating a type of the station which transmits air pollution information to the first V2X communication device; and transmitting (S20200, S21400) the V2X message to a second V2X communication device associated with the vehicle, wherein based on the vehicle control information, the driving mode is set to an eco-driving mode and the stop mode is set to an auto-stop mode, wherein the eco-driving mode is a mode for controlling an engine and transmission of the vehicle according to a preset control algorithm, in order to reduce the amount of air pollutants emitted from vehicle, wherein the auto-stop mode is a mode in which the engine of the vehicle is automatically stopped when the vehicle is stopped for a predetermined period or more, wherein the predetermined period is a period for which the vehicle is stopped in a stop signal of a traffic light or at the bus stop, and characterized in that the station type information includes 1) a first type station directly measuring air pollution data or 2) a second type station using the air pollution data measured by the first type station, and the air pollution information is generated by the station using the air pollution data.
A multispecific antibody or fragment thereof that specifically binds: a. a first target epitope, wherein the first target epitope is an epitope of the variable delta 1 (Vδ1) chain of a γδ T cell receptor (TCR); and b. a second target epitope, wherein the second epitope is selected from the group consisting of an epitope of CD19, Her2 (CD340), EGFR, FAPα, mesothelin, PD-1, 4-1 BB, OX40 and TIGIT. a. a first target epitope, wherein the first target epitope is an epitope of the variable delta 1 (Vδ1) chain of a γδ T cell receptor (TCR); and b. a second target epitope, wherein the second epitope is selected from the group consisting of an epitope of CD19, Her2 (CD340), EGFR, FAPα, mesothelin, PD-1, 4-1 BB, OX40 and TIGIT.
Compounds of formula (I): wherein R, R 1 , R 2 and R 3 are the same or different and are independently selected from hydrogen and a residue of a carboxylic acid, wherein the ester groups R-O-, R 1 -O-, R 2 -O- and R 3 -O-, respectively, are hydrolyzable to a pH ranging between 4.5 and 7, provided that R, R 1 , R 2 and R 3 are not simultaneously hydrogen; and wherein at least one of R, R 1 , R 2 and R 3 is a residue of pivalic acid.
Shaft , having an inlet hole for untreated water and an outlet hole for treated water and having a calming chamber that is disposed between the inlet hole and the outlet hole and incorporates a settling surface for particles contained in the untreated water, where a separating tray is disposed above the inlet hole in the shaft and where the separating tray incorporates a hole to which a rising pipe that incorporates an outlet a little way above the separating tray connects upwards, characterised in that a spiral element that runs around a closed core is disposed in the rising pipe in such a way that untreated water that has flowed into the shaft can rise upwards in the spiral duct above the separating tray , where an annular chamber is disposed radially outside the rising pipe and above the separating tray in such a way that water flowing out of the outlet of the rising pipe passes into the annular chamber , and where the annular chamber connects fluid-permeably to the outlet hole of the shaft in such a way that treated water flows out of the annular chamber to the outlet hole .
A control apparatus of a robot cleaner comprising: a user interface unit configured to receive a user command controlling the robot cleaner; a controller configured to generate a control signal to receive a map of a cleaning area, based on the user command; and a communicator configured to receive the map of the cleaning area from an external server or from the robot cleaner, based on the control signal, wherein in response to the user interface receiving a schedule recommendation command from the user, the controller generates a cleaning schedule of the cleaning area that is appropriate for a state of the robot cleaner. a user interface unit configured to receive a user command controlling the robot cleaner; a controller configured to generate a control signal to receive a map of a cleaning area, based on the user command; and a communicator configured to receive the map of the cleaning area from an external server or from the robot cleaner, based on the control signal, wherein in response to the user interface receiving a schedule recommendation command from the user, the controller generates a cleaning schedule of the cleaning area that is appropriate for a state of the robot cleaner.
An apparatus for enhancing sleep by decreasing sleep onset latency, increasing sleep duration, and/or increasing the duration of deeper sleep stages relative to stage 1 sleep, the apparatus comprising: an applicator configured to be worn over a subject's forehead, the applicator comprising a thermal transfer region configured to contact the subject's forehead but not the perioribtal regions of the subject's face; a thermal regulator unit comprising a heater and a controller for controlling the heater, wherein the heater is in thermal communication with the thermal transfer region; a temperature sensor operably connected to the controller and configured to determine ambient temperature; further wherein the controller is configured to control the temperature of the heater so that the thermal transfer region is at a temperature that is warmer than ambient temperature by a fixed amount, at least 0.5 degrees C but less than 40 degrees C, for greater than 30 minutes. an applicator configured to be worn over a subject's forehead, the applicator comprising a thermal transfer region configured to contact the subject's forehead but not the perioribtal regions of the subject's face; a thermal regulator unit comprising a heater and a controller for controlling the heater, wherein the heater is in thermal communication with the thermal transfer region; a temperature sensor operably connected to the controller and configured to determine ambient temperature; further wherein the controller is configured to control the temperature of the heater so that the thermal transfer region is at a temperature that is warmer than ambient temperature by a fixed amount, at least 0.5 degrees C but less than 40 degrees C, for greater than 30 minutes.
A compact, automated external defibrillator (AED) system, the system comprising: an electronics module , including: a power source, electronic circuitry for generating, storing, and dispensing electrical charge from the power source, the electrical charge being suitable for at least one electrical shock to be applied to a sudden cardiac arrest (SCA) patient, a display for providing guidance to a user of the system, the guidance including instructions on using the system, firmware for controlling the electronic circuitry and the display; and at least two cardiac pads , electrically connected with the electronics module and configured for external attachment to the SCA patient so as to transfer the at least one electrical shock from the electronics module to the SCA patient, wherein the power source is a household battery , wherein the electronics module includes a current charger and a capacitor , the capacitor being configured to store a prescribed amount of energy to deliver the at least one electrical shock, characterized in that the current charger is configured to use a low current constant charge rate to charge the capacitor , and wherein the electronics module further includes a microprocessor , and wherein the low current constant charge rate is controlled by a pulse-width modulation (PWM) signal from the microprocessor , the current charger using a low current constant charge rate in the milliamp range controlled by pulse-width modulation (PWM) signals from the microprocessor to charge the energy storage capacitor to the prescribed amount of energy within 60 seconds or less. a power source, electronic circuitry for generating, storing, and dispensing electrical charge from the power source, the electrical charge being suitable for at least one electrical shock to be applied to a sudden cardiac arrest (SCA) patient, a display for providing guidance to a user of the system, the guidance including instructions on using the system, firmware for controlling the electronic circuitry and the display; and at least two cardiac pads , electrically connected with the electronics module and configured for external attachment to the SCA patient so as to transfer the at least one electrical shock from the electronics module to the SCA patient, wherein the power source is a household battery , wherein the electronics module includes a current charger and a capacitor , the capacitor being configured to store a prescribed amount of energy to deliver the at least one electrical shock, characterized in that the current charger is configured to use a low current constant charge rate to charge the capacitor , and wherein the electronics module further includes a microprocessor , and wherein the low current constant charge rate is controlled by a pulse-width modulation (PWM) signal from the microprocessor , the current charger using a low current constant charge rate in the milliamp range controlled by pulse-width modulation (PWM) signals from the microprocessor to charge the energy storage capacitor to the prescribed amount of energy within 60 seconds or less.
A shaving head comprising a frame and one or more cutting members (28a-d) arranged between a leading longitudinal side and a trailing longitudinal side of the frame , wherein one or more of the cutting members (28a-d) are movable in a direction orthogonal to a shaving plane; an actuator member , which is configured to retract one or more of the cutting members relative to the shaving plane (28a-d) in response to a pressure exerted on the actuator member , wherein the actuator member comprises a pressure sensor element , characterised in that the actuator member furthermore comprises: one or more cantilever elements , which are configured to transmit a force from the pressure sensor element to one or more of the cutting members (28a-d) and wherein the one or more cantilever elements comprise side extensions , in particular, wherein the one or more cantilever elements are secured to the frame by or with the side extensions of the cantilever element . one or more cantilever elements , which are configured to transmit a force from the pressure sensor element to one or more of the cutting members (28a-d) and wherein the one or more cantilever elements comprise side extensions , in particular, wherein the one or more cantilever elements are secured to the frame by or with the side extensions of the cantilever element .
A process for the preparation of a solid catalyst component for the (co)polymerization of CH 2 =CHR olefins, in which R is hydrogen or hydrocarbyl radical with 1-12 carbon atoms, comprising a Ti compound and optionally an electron donor on a Mg chloride based support, said process comprising one or more steps (a) carried out at a temperature ranging from 0 to 150°C in which a Mg based compound of formula (MgCl m X 2-m )·nLB, in which m ranges from 0 to 2, n ranges from 0 to 6, X is, independently halogen, R 1 , OR 1 , -OCOR 1 or O-C(O)-OR 1 group, in which R 1 is a C 1 -C 20 hydrocarbon group, and LB is a Lewis base, is reacted with a liquid medium comprising a Ti compound, having at least a Ti-Cl bond, in an amount such that the Ti/Mg molar ratio is greater than 3 and at least one step (b) in which the solid particles coming from (a) are suspended in a liquid medium comprising a hydrocarbon at a temperature ranging from 10 to 100°C, said process being characterized by the fact that at least one of said steps (a) and/or (b) is carried out in the presence of 0.2 to 20.0% by weight, with respect to the amount of Mg compound, of particles of a solid compound containing more than 50% by weight of SiO 2 units and having average particle size ranging from 1 to 100 μm.
Clamping device for tensioning an attachment on a rim of a vehicle wheel , wherein the attachment , in an operating state in which it is fastened on the vehicle wheel , is configured to enable a driving operation with a limited tire function, wherein - the clamping device , in a section through a section plane extending in a radial and axial direction (A), comprises a hook-like rear engagement section , which for positive engagement behind the rim flange protrudes in an axial direction (A) and extends radially inwards, - the rear engagement section transitions into a contact surface , which is configured and arranged to contact the rim flange from axially outside, characterised in that - the rear engagement section of the clamping device has a retaining section , which is configured to take up clamping forces, and an insertion section , which is configured to enable insertion of the rear engagement section between the rim flange and a tire side wall abutting the rim flange , wherein the insertion section is arranged axially inwards relative to the retaining section , and - the insertion section has a surface on the rim flange side that extends, as seen in the section plane extending in a radial and axial direction, at a flatter angle relative to the axial direction than a surface of the retaining section on the rim flange side. - the clamping device , in a section through a section plane extending in a radial and axial direction (A), comprises a hook-like rear engagement section , which for positive engagement behind the rim flange protrudes in an axial direction (A) and extends radially inwards, - the rear engagement section transitions into a contact surface , which is configured and arranged to contact the rim flange from axially outside, characterised in that - the rear engagement section of the clamping device has a retaining section , which is configured to take up clamping forces, and an insertion section , which is configured to enable insertion of the rear engagement section between the rim flange and a tire side wall abutting the rim flange , wherein the insertion section is arranged axially inwards relative to the retaining section , and - the insertion section has a surface on the rim flange side that extends, as seen in the section plane extending in a radial and axial direction, at a flatter angle relative to the axial direction than a surface of the retaining section on the rim flange side.
An adhesive composition comprising: an epoxy-based resin, a modified product of an acryl-based resin comprising a triblock copolymer of methyl methacrylate-butyl acrylate-methyl methacrylate, and a curing agent, wherein the mixing ratio between said epoxy-based resin and said acryl-based resin is 100:4 to 100:20, and wherein the adhesive composition has a sea-island structure in which said epoxy-based resin is the sea and said acryl-based resin is the island in said adhesive composition. an epoxy-based resin, a modified product of an acryl-based resin comprising a triblock copolymer of methyl methacrylate-butyl acrylate-methyl methacrylate, and a curing agent, wherein the mixing ratio between said epoxy-based resin and said acryl-based resin is 100:4 to 100:20, and wherein the adhesive composition has a sea-island structure in which said epoxy-based resin is the sea and said acryl-based resin is the island in said adhesive composition.
An ultrasonic sensor for a vehicle parking assistance system or an assisted vehicle-reversing system, comprising: an outer housing , which contains a printed circuit board ; a casing placed in the outer housing, in which a piezoelectric element is disposed; and a sealing ring , which is disposed between the casing and the outer housing so as to seal both bottom and periphery of the casing; characterized in that , at least one aperture is disposed on a top surface of the outer housing and the aperture is determined to be filled with adhesive by injection of the adhesive through the aperture to fix the sealing ring to the outer housing. an outer housing , which contains a printed circuit board ; a casing placed in the outer housing, in which a piezoelectric element is disposed; and a sealing ring , which is disposed between the casing and the outer housing so as to seal both bottom and periphery of the casing; characterized in that , at least one aperture is disposed on a top surface of the outer housing and the aperture is determined to be filled with adhesive by injection of the adhesive through the aperture to fix the sealing ring to the outer housing.
A method for transmitting signals, the method comprising: transmitting, by a transmit point , a first filtered-orthogonal frequency division multiplexing-based, f-OFDM, signal over a first frequency sub-band of a carrier and a second f-OFDM signal over a second frequency sub-band of the carrier, the first frequency sub-band having a first bandwidth and a first numerology based on the first bandwidth, the second frequency sub-band having a second bandwidth and a second numerology based on the second bandwidth, the second bandwidth being different from the first bandwidth, and the second numerology having a different transmission time interval, TTI or sub-carrier spacing than the first numerology, wherein the first frequency sub-band and the second frequency sub-band are contiguous in the frequency domain such that the first frequency sub-band and the second frequency sub-band are not separated by a guard band. transmitting, by a transmit point , a first filtered-orthogonal frequency division multiplexing-based, f-OFDM, signal over a first frequency sub-band of a carrier and a second f-OFDM signal over a second frequency sub-band of the carrier, the first frequency sub-band having a first bandwidth and a first numerology based on the first bandwidth, the second frequency sub-band having a second bandwidth and a second numerology based on the second bandwidth, the second bandwidth being different from the first bandwidth, and the second numerology having a different transmission time interval, TTI or sub-carrier spacing than the first numerology, wherein the first frequency sub-band and the second frequency sub-band are contiguous in the frequency domain such that the first frequency sub-band and the second frequency sub-band are not separated by a guard band.
Method for removing dust from a granulate , in particular batchwise, wherein in particular the dust adhering to the granules is removed and wherein - an air flow , which is controllable in particular with respect to its flow velocity, is guided upwardly through the granules , in particular a granule accumulation , and is strong enough to carry granule grains upwardly with it, wherein - the flow velocity of the air flow is selected in such a way that the granules entrained therein terminate their upward movement by gravity in a reversal region for the most part below a reversal threshold and sink downwardly, - above the reversal region or the reversal threshold , such a negative pressure is applied which is sufficient to suck dust contained in the air flow upwards, but which is too weak to suck granulate grains upwards, - the dedusting of the granules is carried out in an intermediate granule container , characterized in that - after dedusting of a granule charge, the intermediate granule container no longer containing any granules is flushed with ionized air. - an air flow , which is controllable in particular with respect to its flow velocity, is guided upwardly through the granules , in particular a granule accumulation , and is strong enough to carry granule grains upwardly with it, - the flow velocity of the air flow is selected in such a way that the granules entrained therein terminate their upward movement by gravity in a reversal region for the most part below a reversal threshold and sink downwardly, - above the reversal region or the reversal threshold , such a negative pressure is applied which is sufficient to suck dust contained in the air flow upwards, but which is too weak to suck granulate grains upwards, - the dedusting of the granules is carried out in an intermediate granule container , - after dedusting of a granule charge, the intermediate granule container no longer containing any granules is flushed with ionized air.
Use of amidine and borate as additives in the production of wood-based materials made of lignocellulose for reducing the emission of volatile organic compounds (VOCs), wherein volatile organic compounds include all volatile organic substances whose retention time in a gas chromatograph lies between hexane and hexadecane, in particular for reducing the emission of terpenes and acids, wherein the additives are introducible or applicable during the production process of the wood-based material and the additive amidine is introduced as additive I to lignocellulose-containing comminution products and the lignocellulose-containing comminution products admixed with the additive are pressed with adhesive under heat treatment to produce the wood-based material, wherein additive I is an amidine of the general formula R-C(=NH)-NH2, wherein R is a carbon-containing radical or an amine group, wherein the amidine may optionally be present as a salt and wherein the further additive borate is used as an additive II for introduction to the lignocellulose-containing comminution products, said additive II being borate.