mhurhangee/ep-ind-claims huggingface dataset:
An electrolyte for a lithium ion battery comprising: a lithium salt; and a non-aqueous organic solvent comprising: a flame-retardant solvent comprising (i) an ionic liquid comprising a fluorinated cation and (ii) a phosphorus-based solvent, and a carbonate solvent, wherein fluorinated cation comprises a cation selected from the group consisting of cations represented by Chemical Formulae 3 to 4 and combinations thereof, wherein R 6 is a fluorine-substituted C1 to C5 alkyl group or an unsubstituted C1 to C5 alkyl group, and R 7 is a C1 to C5 alkyl group in which at least one hydrogen is substituted with fluorine, and wherein each of R 8 and R 10 is independently selected from the group consisting of fluorine-substituted C1 to C5 alkyl groups and unsubstituted C1 to C5 alkyl groups, R 9 is a fluorine-substituted C1 to C5 alkylene group or an unsubstituted C1 to C5 alkylene group, and at least one of R 9 or R 10 is a group in which at least one hydrogen is substituted with fluorine. a lithium salt; and a non-aqueous organic solvent comprising: a flame-retardant solvent comprising (i) an ionic liquid comprising a fluorinated cation and (ii) a phosphorus-based solvent, and a carbonate solvent, wherein fluorinated cation comprises a cation selected from the group consisting of cations represented by Chemical Formulae 3 to 4 and combinations thereof, wherein R 6 is a fluorine-substituted C1 to C5 alkyl group or an unsubstituted C1 to C5 alkyl group, and a flame-retardant solvent comprising (i) an ionic liquid comprising a fluorinated cation and (ii) a phosphorus-based solvent, and a carbonate solvent, wherein fluorinated cation comprises a cation selected from the group consisting of cations represented by Chemical Formulae 3 to 4 and combinations thereof, R 7 is a C1 to C5 alkyl group in which at least one hydrogen is substituted with fluorine, and wherein each of R 8 and R 10 is independently selected from the group consisting of fluorine-substituted C1 to C5 alkyl groups and unsubstituted C1 to C5 alkyl groups, R 9 is a fluorine-substituted C1 to C5 alkylene group or an unsubstituted C1 to C5 alkylene group, and at least one of R 9 or R 10 is a group in which at least one hydrogen is substituted with fluorine.
A microwave heating device comprising: a cavity adapted to receive a load to be heated; at least two microwave sources (110, 112) connected to said cavity for feeding microwave energy into the cavity via at least two feeding ports (120, 122), respectively; at least two sensors (160, 162) and a control unit connected to said microwave sources and adapted to regulate said microwave sources based on information from sensors, characterized in that the at least two sensors (160, 162) are field sensors adapted to measure field strengths of the microwave energy in said cavity, wherein a first field sensor is arranged at a first location for measuring the field strength representative of a mode fed from a first feeding port and a second field sensor is arranged at a second location for measuring the field strength representative of a mode fed from a second feeding port, the control unit being adapted to regulate said microwave sources based on the measured field strengths. a cavity adapted to receive a load to be heated; at least two microwave sources (110, 112) connected to said cavity for feeding microwave energy into the cavity via at least two feeding ports (120, 122), respectively; at least two sensors (160, 162) and a control unit connected to said microwave sources and adapted to regulate said microwave sources based on information from sensors, characterized in that the at least two sensors (160, 162) are field sensors adapted to measure field strengths of the microwave energy in said cavity, wherein a first field sensor is arranged at a first location for measuring the field strength representative of a mode fed from a first feeding port and a second field sensor is arranged at a second location for measuring the field strength representative of a mode fed from a second feeding port, the control unit being adapted to regulate said microwave sources based on the measured field strengths.
An isolated antibody which binds to human Cluster of Differentiation 73 and comprises heavy chain CDR1, CDR2, and CDR3 sequences comprising SEQ ID NOs: 5, 6, and 7, respectively, and light chain CDR1, CDR2, and CDR3 sequences comprising SEQ ID NOs: 13, 14, and 15, respectively, wherein the antibody comprises a heavy chain constant region which comprises an IgG2 hinge and IgG2 CH1 domain.
Nanowire device for optical or optoelectronic applications, comprising - at least one nanowire standing on a substrate, wherein the at least one nanowire includes a core region and a bending region being adapted for inducing strain in the at least one nanowire such that the at least one nanowire is bent in a bending direction deviating from the normal direction of the substrate, wherein - the core region and an active region provide a heterostructure being configured for light emission by carrier recombination, characterized in that - the at least one nanowire includes the active region being located in a tensely strained portion of the at least one nanowire, wherein the tensely strained portion has a tensile strain compared to an average strain in the at least one nanowire. - at least one nanowire standing on a substrate, wherein the at least one nanowire includes a core region and a bending region being adapted for inducing strain in the at least one nanowire such that the at least one nanowire is bent in a bending direction deviating from the normal direction of the substrate, wherein - the core region and an active region provide a heterostructure being configured for light emission by carrier recombination, - the at least one nanowire includes the active region being located in a tensely strained portion of the at least one nanowire, wherein the tensely strained portion has a tensile strain compared to an average strain in the at least one nanowire.
Apparatus (400, 500, 504, 901, 801, 902) configured to: obtain from a database server remote (801, 902) to a white-space device (504, 901) first geo-specific spectrum usage data for a current geographical area corresponding to the current location of the white-space device; calculate a geographical margin for the current geographical area before the white-space device enters the geographical margin, the geographical margin defining an outer area of the geographical area, wherein: the geographical margin is within the boundary of the current geographical area; and the size of the geographical margin is determined using the velocity of the white-space device and a time parameter, the time parameter being greater than the time required to obtain the geo-specific spectrum usage data from the remote location; and when the white-space device reaches the geographical margin, obtain second geo-specific spectrum usage data corresponding to an adjacent geographical area, which is non-overlapping with the current geographical area, from the database server. obtain from a database server remote (801, 902) to a white-space device (504, 901) first geo-specific spectrum usage data for a current geographical area corresponding to the current location of the white-space device; calculate a geographical margin for the current geographical area before the white-space device enters the geographical margin, the geographical margin defining an outer area of the geographical area, wherein: the geographical margin is within the boundary of the current geographical area; and the size of the geographical margin is determined using the velocity of the white-space device and a time parameter, the time parameter being greater than the time required to obtain the geo-specific spectrum usage data from the remote location; and when the white-space device reaches the geographical margin, obtain second geo-specific spectrum usage data corresponding to an adjacent geographical area, which is non-overlapping with the current geographical area, from the database server. the geographical margin is within the boundary of the current geographical area; and the size of the geographical margin is determined using the velocity of the white-space device and a time parameter, the time parameter being greater than the time required to obtain the geo-specific spectrum usage data from the remote location; and when the white-space device reaches the geographical margin, obtain second geo-specific spectrum usage data corresponding to an adjacent geographical area, which is non-overlapping with the current geographical area, from the database server.
Crystalline form 1 of the compound of formula I: wherein, the X-ray powder diffraction pattern of the crystalline form 1 has characteristic peaks at the diffraction angle 2θ of 4.3±0.2°, 8.6±0.2° and 12.9±0.2°, and the X-ray powder diffraction patterns were all measured using Kα spectrum of the Cu target.
An LED light fixture comprising: a heat-sink structure having a mounting surface on which a circuit board is mounted, with a plurality of spaced apart LED light sources on the circuit board; and a one-piece optical member comprising: a plurality of spaced lenses positioned over the LED light sources on the circuit board, each of the lenses for alignment with a corresponding one of the LED light sources and having at least one lens layer (22, 44) of a polymeric material, an outer layer of the polymeric material extending into a lens flange (24, 48) of such material that surrounds the lens and is spaced from the lens flanges (24, 48) of the adjacent lenses; and a polymeric carrier portion (26, 26A) surrounding the lenses, overlapping with and molded onto the lens flanges (24, 48) across such overlapping, and extending laterally therefrom to a peripheral edge portion, characterized in that part of the polymeric carrier portion (26, 26A) overlapping with the lens flanges (24, 48) is between the lens flanges (24, 48) and the circuit board. a heat-sink structure having a mounting surface on which a circuit board is mounted, with a plurality of spaced apart LED light sources on the circuit board; and a one-piece optical member comprising: a plurality of spaced lenses positioned over the LED light sources on the circuit board, each of the lenses for alignment with a corresponding one of the LED light sources and having at least one lens layer (22, 44) of a polymeric material, an outer layer of the polymeric material extending into a lens flange (24, 48) of such material that surrounds the lens and is spaced from the lens flanges (24, 48) of the adjacent lenses; and a polymeric carrier portion (26, 26A) surrounding the lenses, overlapping with and molded onto the lens flanges (24, 48) across such overlapping, and extending laterally therefrom to a peripheral edge portion, a plurality of spaced lenses positioned over the LED light sources on the circuit board, each of the lenses for alignment with a corresponding one of the LED light sources and having at least one lens layer (22, 44) of a polymeric material, an outer layer of the polymeric material extending into a lens flange (24, 48) of such material that surrounds the lens and is spaced from the lens flanges (24, 48) of the adjacent lenses; and a polymeric carrier portion (26, 26A) surrounding the lenses, overlapping with and molded onto the lens flanges (24, 48) across such overlapping, and extending laterally therefrom to a peripheral edge portion, characterized in that part of the polymeric carrier portion (26, 26A) overlapping with the lens flanges (24, 48) is between the lens flanges (24, 48) and the circuit board.
A method for evaluating the probability of a bed exit of a patient from a bed (1230. 1300), the method comprising: determining the compass heading of the bed (1230, 1300), collecting sensor data (1205, 1320, 1340) regarding the patient by a patient-worn sensor device (110, 300) secured to the patient, the patient-worn sensor device (110, 300) comprising an accelerometer (305, 353) and a magnetometer, receiving, at a processor (310, 377, 125), the sensor data (1205, 1320, 1340) collected by the patient-worn sensor device (110, 300), determining, by the processor (310, 377, 125), how the patient is oriented relative to the bed (1330, 1350) based on the compass heading of the bed and the sensor data (1205, 1320, 1340) of the patient, collected by the magnetometer of the patient-worn sensor device (110,300), determining, by the processor (310, 377, 125), an upright position of the patient based on the sensor data (1205, 1320, 1340) collected by the accelerometer of the patient-worn sensor device, and identifying a bed exit condition based at least on the determined orientation of the patient relative to the bed and the determined upright position of the patient, wherein identifying the bed exit condition comprises identifying a likely occurrence of a bed exit by the patient. determining the compass heading of the bed (1230, 1300), collecting sensor data (1205, 1320, 1340) regarding the patient by a patient-worn sensor device (110, 300) secured to the patient, the patient-worn sensor device (110, 300) comprising an accelerometer (305, 353) and a magnetometer, receiving, at a processor (310, 377, 125), the sensor data (1205, 1320, 1340) collected by the patient-worn sensor device (110, 300), determining, by the processor (310, 377, 125), how the patient is oriented relative to the bed (1330, 1350) based on the compass heading of the bed and the sensor data (1205, 1320, 1340) of the patient, collected by the magnetometer of the patient-worn sensor device (110,300), determining, by the processor (310, 377, 125), an upright position of the patient based on the sensor data (1205, 1320, 1340) collected by the accelerometer of the patient-worn sensor device, and identifying a bed exit condition based at least on the determined orientation of the patient relative to the bed and the determined upright position of the patient, wherein identifying the bed exit condition comprises identifying a likely occurrence of a bed exit by the patient.
Ventilation system for an interior of a motor vehicle, having at least one air duct and at least one air filtration device, the air filtration device comprising at least one holding device having at least one holding element, the holding device being configured to fasten the holding element detachably on the motor vehicle, characterised in that the air filtration device has at least a lichen and/or a moss as a natural filtration medium, and the filtration medium is held at least in part in an airflow of the air duct by means of the holding element.
A hermetically sealed high voltage assembly comprising: - a hermetically sealed compartment delimited by rigid walls, wherein the compartment contains an active component at least partly surrounded by an insulation liquid; - a hermetically sealed conservator delimited by rigid walls, wherein a level of insulation liquid inside the conservator is at or below a level of a cover of the compartment; and - a liquid connection between the conservator and the compartment, wherein the conservator is partly filled with a compressible fluid in direct contact with the insulation liquid, wherein the high voltage assembly is adapted so that operating conditions of the compressible fluid comprise an absolute pressure of the compressible fluid between a lower pressure limit and an upper pressure limit, and in that the conservator comprises an intake unit which is adapted to supply the conservator with the compressible fluid if an absolute pressure of the compressible fluid drops below the lower pressure limit. - a hermetically sealed compartment delimited by rigid walls, wherein the compartment contains an active component at least partly surrounded by an insulation liquid; - a hermetically sealed conservator delimited by rigid walls, wherein a level of insulation liquid inside the conservator is at or below a level of a cover of the compartment; and - a liquid connection between the conservator and the compartment,
A method for manufacturing a particle source, comprising: placing a metal wire in vacuum, introducing active gas, adjusting a temperature of the metal wire and applying a positive high voltage V to the metal wire to generate at a side of the head of the metal wire an etching zone in which field induced chemical etching (FICE) is performed; characterized by comprising: increasing by the FICE a surface electric field at the top of the metal wire head to be greater than a field evaporation electric field of material for the metal wire, so that metal atoms at the top of the metal wire are evaporated off; after the field evaporation is activated by the FICE, causing mutual adjustment between the FICE and the field evaporation, until the head of the metal wire has a shape of combination of a base and a tip on the base; and stopping the FICE and the field evaporation when the head of the metal wire takes a predetermine shape. placing a metal wire in vacuum, introducing active gas, adjusting a temperature of the metal wire and applying a positive high voltage V to the metal wire to generate at a side of the head of the metal wire an etching zone in which field induced chemical etching (FICE) is performed; characterized by comprising: increasing by the FICE a surface electric field at the top of the metal wire head to be greater than a field evaporation electric field of material for the metal wire, so that metal atoms at the top of the metal wire are evaporated off; after the field evaporation is activated by the FICE, causing mutual adjustment between the FICE and the field evaporation, until the head of the metal wire has a shape of combination of a base and a tip on the base; and stopping the FICE and the field evaporation when the head of the metal wire takes a predetermine shape. increasing by the FICE a surface electric field at the top of the metal wire head to be greater than a field evaporation electric field of material for the metal wire, so that metal atoms at the top of the metal wire are evaporated off; after the field evaporation is activated by the FICE, causing mutual adjustment between the FICE and the field evaporation, until the head of the metal wire has a shape of combination of a base and a tip on the base; and stopping the FICE and the field evaporation when the head of the metal wire takes a predetermine shape.
An in vitro method for reprogramming a somatic cell which comprises contacting somatic cells with a nuclear reprogramming factor comprising an Oct family gene or gene product, a Klf family gene or gene product, a Sox family gene or gene product and any one of a) and/or b) a) a Myc family gene or gene product, b) a cytokine. a) a Myc family gene or gene product, b) a cytokine.
A wireless probe for an ultrasound imaging system, comprising: a housing; a transducer array mounted in the housing, wherein the transducer array directs acoustical energy at a target area and senses return reflections of the acoustical energy from the target area; a transmitter mounted in the housing and communicatively coupled to the transducer array, wherein the transmitter transmits information relating to the return reflections; and a battery pack removably mounted to the housing, wherein the battery pack provides electrical power for the transducer and the transmitter and comprises an enclosure, and a battery mounted within the enclosure, and a first electrical contact mounted to the enclosure, characterized by the probe further comprises a second electrical contact mounted on a battery panel to the housing, wherein the second electrical contact mates with the first electrical contact when the battery pack is mounted to the housing; and an electrically insulative barrier, wherein the barrier is (i) a part of the enclosure and surrounds the second electrical contact or (ii) a part of the housing and surrounds the first electrical contact; wherein the electrically-insulative barrier is in the form of a ring-shaped, compressible gasket; wherein the battery panel and the battery pack are equipped with mating features that require the battery pack to be rotated in relation to the housing, or vice versa, when the battery pack is mated with the housing. a housing; a transducer array mounted in the housing, wherein the transducer array directs acoustical energy at a target area and senses return reflections of the acoustical energy from the target area; a transmitter mounted in the housing and communicatively coupled to the transducer array, wherein the transmitter transmits information relating to the return reflections; and a battery pack removably mounted to the housing, wherein the battery pack provides electrical power for the transducer and the transmitter and comprises an enclosure, and a battery mounted within the enclosure, and a first electrical contact mounted to the enclosure, characterized by the probe further comprises a second electrical contact mounted on a battery panel to the housing, wherein the second electrical contact mates with the first electrical contact when the battery pack is mounted to the housing; and an electrically insulative barrier, wherein the barrier is (i) a part of the enclosure and surrounds the second electrical contact or (ii) a part of the housing and surrounds the first electrical contact; wherein the electrically-insulative barrier is in the form of a ring-shaped, compressible gasket; wherein the battery panel and the battery pack are equipped with mating features that require the battery pack to be rotated in relation to the housing, or vice versa, when the battery pack is mated with the housing.
A communication device (100, 200, 300), comprising: a plurality of processing modules (104, 106) arranged to process data and to store one or more profiles; a profile management unit arranged to manage one or more profiles stored on said processing modules (104, 106), wherein the profile management unit is arranged to distribute one or more profiles to the processing modules (104, 106), including routing downloaded profiles to said processing modules (104, 106) in dependence on a result of an eligibility test, characterized in that the profile management unit is arranged to perform the eligibility test on parameters of memory availability and required support for a given technology. a plurality of processing modules (104, 106) arranged to process data and to store one or more profiles; a profile management unit arranged to manage one or more profiles stored on said processing modules (104, 106), wherein the profile management unit is arranged to distribute one or more profiles to the processing modules (104, 106), including routing downloaded profiles to said processing modules (104, 106) in dependence on a result of an eligibility test, characterized in that the profile management unit is arranged to perform the eligibility test on parameters of memory availability and required support for a given technology.
Method for optical coherence tomography, in which a first image is recorded in the range of a first plane of an object by means of an optical coherence tomography equipment (10 - 30), and the first image is displayed on a display device, characterized in that on the basis of the first image that is displayed on the display device, a second plane of the object for a second image of the object is selected before recording the second image, wherein the second plane of the object is different from the first plane of the object, and the second image is recorded in the range of the selected second plane of the object by means of the optical coherence tomography equipment (10 - 30) and is displayed simultaneously with the first image on the display device.