mhurhangee/ep-ind-claims huggingface dataset:
A method, being performed by a relaying device, for relaying user data messages originated in a source device intended for a destination device, where the source device, the relaying device and the destination device participates in a mesh network, the method comprising: setting a maximum allowed path length, in terms of number of hops, for relaying; receiving a first ping message, originating in the source device intended for the destination device, where the first ping message comprises a first hop counter; and relaying the first ping message by stepping the first hop counter and transmitting the first ping message; and receiving a user data message originating in the source device intended for the destination device; and determining whether the relaying device is on a possible path, indicating that the relaying device is on a path from the source device to the destination device; and determining whether the relaying device is on a short enough path by determining that the relaying device is on a path having a path length shorter than or equal to the maximum allowed path length, indicating that the relaying device is on a path from the source device to the destination device that is deemed short enough to justify relaying; and relaying the user data message only if the relaying device is on the possible path and on the short enough path. setting a maximum allowed path length, in terms of number of hops, for relaying; receiving a first ping message, originating in the source device intended for the destination device, where the first ping message comprises a first hop counter; and relaying the first ping message by stepping the first hop counter and transmitting the first ping message; and receiving a user data message originating in the source device intended for the destination device; and determining whether the relaying device is on a possible path, indicating that the relaying device is on a path from the source device to the destination device; and determining whether the relaying device is on a short enough path by determining that the relaying device is on a path having a path length shorter than or equal to the maximum allowed path length, indicating that the relaying device is on a path from the source device to the destination device that is deemed short enough to justify relaying; and relaying the user data message only if the relaying device is on the possible path and on the short enough path.
A method for measuring a component to be measured in a sample, comprising adding an α-keto acid to an aqueous medium containing the sample and a peroxide, converting the component to be measured in the sample into hydrogen peroxide in the aqueous medium containing the α-keto acid, and measuring the formed hydrogen peroxide in the presence of an α-keto acid using a leuco chromogen which is a substance that is converted by itself into a dye in the presence of hydrogen peroxide and a peroxidative substance, wherein the α-keto acid suppresses the influence of the peroxide without influencing the hydrogen peroxide quantification system.
A heterodimeric antibody comprising: a) a first heavy chain comprising: i) a first Fc domain variant; ii) a single chain Fv region (scFv) that binds CD3; and b) a second heavy chain comprising: i) a second Fc domain variant; and ii) a first variable heavy domain; and c) a first light chain comprising a first variable light domain and a first constant light domain; wherein said first variable heavy domain and said first variable light domain bind to CD38, and wherein said second heavy chain and said first light chain are selected from the pairs consisting of a) a first heavy chain comprising: i) a first Fc domain variant; ii) a single chain Fv region (scFv) that binds CD3; and i) a first Fc domain variant; ii) a single chain Fv region (scFv) that binds CD3; and b) a second heavy chain comprising: i) a second Fc domain variant; and ii) a first variable heavy domain; and i) a second Fc domain variant; and ii) a first variable heavy domain; and c) a first light chain comprising a first variable light domain and a first constant light domain;
A gas detection system comprising: a first set of filters configured to pass first filtered infrared radiation comprising a first range of thermal wavelengths associated with a background portion of a scene; a second set of filters configured to pass second filtered infrared radiation comprising a second range of thermal wavelengths associated with a gas present in the scene, wherein the first and second ranges are independent of each other, the first and second filters (131A, 131B) being arranged in an alternating pattern; and a sensor array comprising adjacent infrared sensors configured to separately receive the first and second filtered infrared radiation (171A, 171B) according to the alternating pattern to simultaneously capture first and second thermal images respectively corresponding to the background portion and the gas, and the alternating pattern aligning the first and second thermal images (312, 322) with each other to prevent parallax between the first and second thermal images (312, 322); characterized by a processor configured to: generate a differential image using the first and second thermal images (312, 322) Z to distinguish between the gas and the background portion of the scene, and calibrate the first and second thermal images (312,322) against each other before the differential image is generated to further distinguish between the gas and the background portion of the scene. a first set of filters configured to pass first filtered infrared radiation comprising a first range of thermal wavelengths associated with a background portion of a scene; a second set of filters configured to pass second filtered infrared radiation comprising a second range of thermal wavelengths associated with a gas present in the scene, wherein the first and second ranges are independent of each other, the first and second filters (131A, 131B) being arranged in an alternating pattern; and a sensor array comprising adjacent infrared sensors configured to separately receive the first and second filtered infrared radiation (171A, 171B) according to the alternating pattern to simultaneously capture first and second thermal images respectively corresponding to the background portion and the gas, and the alternating pattern aligning the first and second thermal images (312, 322) with each other to prevent parallax between the first and second thermal images (312, 322); characterized by a processor configured to: generate a differential image using the first and second thermal images (312, 322) Z to distinguish between the gas and the background portion of the scene, and calibrate the first and second thermal images (312,322) against each other before the differential image is generated to further distinguish between the gas and the background portion of the scene. generate a differential image using the first and second thermal images (312, 322) Z to distinguish between the gas and the background portion of the scene, and calibrate the first and second thermal images (312,322) against each other before the differential image is generated to further distinguish between the gas and the background portion of the scene.
A wind turbine comprising a power supply, an energy storage device, an electric motor and a breaking resistor; wherein the electric motor is in occasional electrical contact with the breaking resistor such that a first current flows through the breaking resistor and excess kinetic energy of the electric motor is converted into heat, and; wherein the power supply is configured to cause a second current to flow through the breaking resistor such that the breaking resistor produces heat, and the breaking resistor and energy storage device are arranged such that breaking resistor provides heat to the energy storage device. wherein the electric motor is in occasional electrical contact with the breaking resistor such that a first current flows through the breaking resistor and excess kinetic energy of the electric motor is converted into heat, and; wherein the power supply is configured to cause a second current to flow through the breaking resistor such that the breaking resistor produces heat, and the breaking resistor and energy storage device are arranged such that breaking resistor provides heat to the energy storage device.
An aerosol dispensing container comprising a body section and a dispensing section, the body section comprising a container having an aerosol valve at one end, the dispensing section comprising an enclosing unit and an actuating unit, the actuating unit adjacent the aerosol valve of the body section, the enclosing unit attaching the actuating unit to the body section, the actuating unit having a dispensing aperture, the dispensing aperture in communication with the aerosol valve the actuating unit further comprises an actuating aperture, the actuating aperture sized to receive a finger of a person, the actuating aperture extending through said dispensing section to form an actuating channel, characterised in that at least a lower portion of said actuating channel being flexible and contacting the aerosol valve on the body section.
A system, capable of controlling a power consumption of a receiving unit, comprising: an apparatus arranged to be controlled via a combination of a receiving unit and a transmitting unit, wherein the apparatus has a state which is detected by a detector; said receiving unit arranged to control the apparatus based on an operation control signal; said transmitting unit arranged to send said operation control signal to the receiving unit; and characterized in that the system further comprises a device arranged to control the power consumption of the receiving unit in dependence upon the state of the apparatus, for reducing an average power consumption of the receiving unit, wherein the device comprises a receiver arranged to receive the operation control signal from the transmitting unit and a controller arranged to control the receiving unit in response to a detection of said state of the apparatus; wherein the device is arranged to switch off a power supply to the receiving unit when the apparatus is in said state, either under the condition that the device knows how long the receiving unit may remain switched off, or under the condition that the device has access to a new operation control signal from the transmitting unit, such that the device can react to new information and then switch the power supply to the receiving unit back on. an apparatus arranged to be controlled via a combination of a receiving unit and a transmitting unit, wherein the apparatus has a state which is detected by a detector; said receiving unit arranged to control the apparatus based on an operation control signal; said transmitting unit arranged to send said operation control signal to the receiving unit; and characterized in that the system further comprises a device arranged to control the power consumption of the receiving unit in dependence upon the state of the apparatus, for reducing an average power consumption of the receiving unit, wherein the device comprises a receiver arranged to receive the operation control signal from the transmitting unit and a controller arranged to control the receiving unit in response to a detection of said state of the apparatus;
An optical transmitter, comprising: a laser having an output; an optical beam splitter having an input coupled to the output of the laser and two outputs configured so as to produce first and second optical signals; first and second optical intensity modulators having respective inputs coupled to the outputs of the optical beam splitter and configured to impress multi-level intensity modulation on the first and second optical signals, respectively, based on respective first and second information streams; a phase modulator coupled in line with the second optical intensity modulator and configured to impress a multi-level phase modulation on the second optical signal, using a multi-level phase modulation signal derived from a third information stream independent of the first and second information streams; and an optical beam combiner having first and second inputs coupled to receive the intensity-modulated first optical signal and the intensity-and-phase-modulated second optical signal, respectively, and configured to combine the intensity-modulated first optical signal and the intensity-and-phase-modulated second optical signal to produce a polarization-multiplexed optical signal for transmission; wherein the optical transmitter is configured so that the intensity-modulated first optical signal and the intensity-and-phase-modulated second optical signal in the polarization-multiplexed optical signal have first and second optical states of polarization, respectively. a laser having an output; an optical beam splitter having an input coupled to the output of the laser and two outputs configured so as to produce first and second optical signals; first and second optical intensity modulators having respective inputs coupled to the outputs of the optical beam splitter and configured to impress multi-level intensity modulation on the first and second optical signals, respectively, based on respective first and second information streams; a phase modulator coupled in line with the second optical intensity modulator and configured to impress a multi-level phase modulation on the second optical signal, using a multi-level phase modulation signal derived from a third information stream independent of the first and second information streams; and an optical beam combiner having first and second inputs coupled to receive the intensity-modulated first optical signal and the intensity-and-phase-modulated second optical signal, respectively, and configured to combine the intensity-modulated first optical signal and the intensity-and-phase-modulated second optical signal to produce a polarization-multiplexed optical signal for transmission;
Vector comprising nucleic acid sequences encoding 4-1BB ligand, single chain IL-12 (scIL-12) and IL-2, and further comprising at least one regulatory nucleic acid sequence, preferably a promoter sequence, providing for an increased expression level of 4-1BBL as compared to the expression levels of scIL-12 and IL-2, wherein the nucleic acid sequences encoding scIL-12 and IL-2 are located downstream of the nucleic acid sequence encoding 4-1BBL, and wherein the expression level of 4-1BBL is increased as compared to the expression level of 4-1BBL obtained by the expression construct of vector Im01 (Figure 20).
A wireless transmit receive unit, WTRU, comprising a processor, the processor configured, at least in part, to: detect a predetermined number of Random Access Channel, RACH, retries; indicate a MAC reset request for reset of a MAC entity to a Radio Resource Controller, RRC, upon the detection of the predetermined number of RACH retries; receive an acknowledgement of the reset indication from the RRC; suspend transmission of any protocol data unit, PDU, from the MAC entity; and suspend multiplexing and assembling of at least one service data unit, SDU, of the MAC entity. detect a predetermined number of Random Access Channel, RACH, retries; indicate a MAC reset request for reset of a MAC entity to a Radio Resource Controller, RRC, upon the detection of the predetermined number of RACH retries; receive an acknowledgement of the reset indication from the RRC; suspend transmission of any protocol data unit, PDU, from the MAC entity; and suspend multiplexing and assembling of at least one service data unit, SDU, of the MAC entity.
Service device for a multi-component insulating gas, for use during the maintenance of electrical switchgears with a plant room, comprising - a compressor with a downstream cooler, - a storage container, - wherein the service device is connected to a plant room, wherein the compressor compresses the insulating gas during the removal from the plant room, wherein all components of the insulating gas remain in the compressor in the gaseous state, wherein a line heating device is provided, which at least partially heats a pipeline between the storage container and the plant room and/or elements in the pipeline, such as, for example, a filter housing or the like characterised in that the cooler is regulated by a controller such that all components of the insulating gas are still in the gaseous phase when leaving the cooler and that a condensation of the insulating gas takes place in the storage container or in the line system between cooler and storage container, wherein the line system is designed at this point such that even liquefied components enter the storage container in liquid form, where a renewed admixture with the remaining components condensing there then occurs and a storage heating device is provided for the storage container, wherein the storage heating device is used to heat the insulating gas in the storage container to a temperature above the critical temperature of all components and during the filling of the plant room the storage heating device heats the insulating gas to a temperature above the critical temperature of all components of the insulating gas. - a compressor with a downstream cooler, - a storage container, - wherein the service device is connected to a plant room, wherein the compressor compresses the insulating gas during the removal from the plant room, wherein all components of the insulating gas remain in the compressor in the gaseous state, wherein a line heating device is provided, which at least partially heats a pipeline between the storage container and the plant room and/or elements in the pipeline, such as, for example, a filter housing or the like characterised in that the cooler is regulated by a controller such that all components of the insulating gas are still in the gaseous phase when leaving the cooler and that a condensation of the insulating gas takes place in the storage container or in the line system between cooler and storage container, wherein the line system is designed at this point such that even liquefied components enter the storage container in liquid form, where a renewed admixture with the remaining components condensing there then occurs and a storage heating device is provided for the storage container, wherein the storage heating device is used to heat the insulating gas in the storage container to a temperature above the critical temperature of all components and during the filling of the plant room the storage heating device heats the insulating gas to a temperature above the critical temperature of all components of the insulating gas.
A combustion device configured to be used for a gas turbine comprising a compressor and the combustion device, the combustion device comprising: a combustor that combusts fuel ammonia and combustion air in a combustion chamber, wherein the combustor comprises: a burner (3d1) that injects the fuel ammonia into the combustion chamber; a cooling ammonia supplier that mixes the fuel ammonia into the combustion air and that supplies the fuel ammonia into the combustor; and a side wall that forms the combustion chamber, characterized in that the cooling ammonia supplier is, in use, positioned downstream from the compressor in a flow direction of the combustion air and between the compressor and the side wall. a combustor that combusts fuel ammonia and combustion air in a combustion chamber, wherein the combustor comprises: a burner (3d1) that injects the fuel ammonia into the combustion chamber; a cooling ammonia supplier that mixes the fuel ammonia into the combustion air and that supplies the fuel ammonia into the combustor; and a side wall that forms the combustion chamber, characterized in that a burner (3d1) that injects the fuel ammonia into the combustion chamber; a cooling ammonia supplier that mixes the fuel ammonia into the combustion air and that supplies the fuel ammonia into the combustor; and a side wall that forms the combustion chamber, characterized in that the cooling ammonia supplier is, in use, positioned downstream from the compressor in a flow direction of the combustion air and between the compressor and the side wall.
A surface modified nitride particle comprising: a nitride particle covalently bonded via a urethane moiety to an aromatic compound; and at least two auxiliary moieties, wherein a majority of any moieties connecting the nitride particle and the aromatic compound are urethane moieties.
1-(3-(4-Amino-3-(4-phenoxyphenyl)-1H-pyrazolo[3,4-d]pyrimidin-1-yl)piperidin-1-yl)prop-2-en-1-one or a pharmaceutically acceptable salt thereof for use in the treatment of follicular lymphoma.
Winding device for a windable screen of a home automation installation for closure or for sun protection, the winding device comprising: - a winding tube, - a hollow sleeve, - a tubular electromechanical actuator, • wherein the hollow sleeve is arranged at one of the ends of the winding tube and inside the winding tube, • wherein the hollow sleeve has, over a portion of its length, an outer cross-section corresponding to the inner cross-section of the winding tube, and • wherein the tubular electromechanical actuator is inserted inside the hollow sleeve, characterised in that the winding device comprises fixing elements (25a, 25b) which cooperate with the hollow sleeve and the winding tube so as to block the hollow sleeve in translation relative to the winding tube, and in that the tubular electromechanical actuator is slidably mounted in the hollow sleeve so as to adjust the length of the winding device telescopically. - a winding tube, - a hollow sleeve, - a tubular electromechanical actuator, • wherein the hollow sleeve is arranged at one of the ends of the winding tube and inside the winding tube, • wherein the hollow sleeve has, over a portion of its length, an outer cross-section corresponding to the inner cross-section of the winding tube, and • wherein the tubular electromechanical actuator is inserted inside the hollow sleeve, • wherein the hollow sleeve is arranged at one of the ends of the winding tube and inside the winding tube, • wherein the hollow sleeve has, over a portion of its length, an outer cross-section corresponding to the inner cross-section of the winding tube, and • wherein the tubular electromechanical actuator is inserted inside the hollow sleeve,