mhurhangee/ep-ind-claims huggingface dataset:
A smoke generating device with induction heating at the front end of a cigarette, comprising: a hollow heating cup, a ferromagnetic heating element, and an induction coil; the hollow heating cup comprises an upper hollow structure, a lower hollow structure and a baffle between them, the upper hollow structure comprises a cigarette accommodating cavity, and the lower hollow structure comprises a heating element accommodating cavity, the baffle is provided with a heat collecting hole connecting the cigarette accommodating cavity and the heating element accommodating cavity; the ferromagnetic heating element has a structure that the air can pass through, the ferromagnetic heating element is disposed in the heating element accommodating cavity of the hollow heating cup; the induction coil surrounds the outer wall of the heating element accommodating cavity of the hollow heating cup and is connected to a power source, the heating element accommodating cavity is connected to the outside air, characterized in that the upper hollow structure of the hollow heating cup is provided with a hollow heat equalizer with a top plate, and a plurality of heat equalizing holes are provided on the top plate, the hollow structure inside the hollow heat equalizer is a heat equalizing cavity, and the hollow heat equalizer is disposed at the lower part of the cigarette accommodating cavity, the heat equalizing cavity is connected to the cigarette accommodating cavity through the plurality of heat equalizing holes, and the heat equalizing cavity is connected to the heating element accommodating cavity through the heat collecting hole. the hollow heating cup comprises an upper hollow structure, a lower hollow structure and a baffle between them, the upper hollow structure comprises a cigarette accommodating cavity, and the lower hollow structure comprises a heating element accommodating cavity, the baffle is provided with a heat collecting hole connecting the cigarette accommodating cavity and the heating element accommodating cavity; the ferromagnetic heating element has a structure that the air can pass through, the ferromagnetic heating element is disposed in the heating element accommodating cavity of the hollow heating cup; the induction coil surrounds the outer wall of the heating element accommodating cavity of the hollow heating cup and is connected to a power source, the heating element accommodating cavity is connected to the outside air, characterized in that the upper hollow structure of the hollow heating cup is provided with a hollow heat equalizer with a top plate, and a plurality of heat equalizing holes are provided on the top plate, the hollow structure inside the hollow heat equalizer is a heat equalizing cavity, and the hollow heat equalizer is disposed at the lower part of the cigarette accommodating cavity, the heat equalizing cavity is connected to the cigarette accommodating cavity through the plurality of heat equalizing holes, and the heat equalizing cavity is connected to the heating element accommodating cavity through the heat collecting hole.
A heterodimeric polypeptide comprising an immunoglobulin heavy chain of an IgG antibody which is linked to a fusion protein, in a covalent or non-covalent interaction, said fusion protein comprising an immunoglobulin light chain and an IgG Fc molecule, wherein said heavy chain and said fusion protein are oriented identically with respect to their N- and C- termini, wherein said heterodimeric polypeptide is capable of specifically binding to a target receptor, and wherein said heterodimeric polypeptide is monovalent.
A method of alkylating isobutane, comprising: passing a feed mixture of excess isobutane and C2 to C5 olefins into a reaction chamber; wherein the reaction chamber comprises a crystalline zeolite catalyst; wherein the crystalline zeolite catalyst comprises sodalite cages and supercages, a Si/Al molar ratio of 20 or less, less than 0.5 weight percent alkali metals; and up to 5wt% of Pt, Pd and or Nickel, wherein 5 kg of alkylate product are produced per kg of catalyst or greater and, at steady state, at least 90% of the butenes or at least 90% of the C2 to C5 olefins are converted to products and wherein the Research Octane Number remains above 92; and conducting the process for a catalyst age of 3.0 or greater over the same catalyst; and wherein steady state means that the selectivity to C8 isomers changes by 10% or less over the entire period that the catalyst age is determined; wherein the catalyst age is the mass of olefin fed to the reactor divided by the mass of catalyst. passing a feed mixture of excess isobutane and C2 to C5 olefins into a reaction chamber; wherein the reaction chamber comprises a crystalline zeolite catalyst; wherein the crystalline zeolite catalyst comprises sodalite cages and supercages, a Si/Al molar ratio of 20 or less, less than 0.5 weight percent alkali metals; and up to 5wt% of Pt, Pd and or Nickel, wherein 5 kg of alkylate product are produced per kg of catalyst or greater and, at steady state, at least 90% of the butenes or at least 90% of the C2 to C5 olefins are converted to products and wherein the Research Octane Number remains above 92; and conducting the process for a catalyst age of 3.0 or greater over the same catalyst; and wherein steady state means that the selectivity to C8 isomers changes by 10% or less over the entire period that the catalyst age is determined; wherein the catalyst age is the mass of olefin fed to the reactor divided by the mass of catalyst.
A system for repairing a cartilage defect, comprising: a cartilage graft configured for repairing the cartilage defect, wherein the cartilage graft includes a cartilage disk that includes a plurality of pores formed through the cartilage disk; and a flexible strand (32, 43, 57) passed through a pore and an adjacent pore of the plurality of pores; characterized in that the cartilage graft is made of micronized cartilage matrix and the system further comprises at least one knotless suture anchor (30A, 30B, 30C) configured for attaching the cartilage graft to a bone. a cartilage graft configured for repairing the cartilage defect, wherein the cartilage graft includes a cartilage disk that includes a plurality of pores formed through the cartilage disk; and a flexible strand (32, 43, 57) passed through a pore and an adjacent pore of the plurality of pores; characterized in that the cartilage graft is made of micronized cartilage matrix and the system further comprises at least one knotless suture anchor (30A, 30B, 30C) configured for attaching the cartilage graft to a bone.
A salt selected from the group consisting of: -3-(4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1 H-pyrazol-1-yl)-3-cyclopentylpropanenitrile phosphoric acid salt; -3-(4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1 H-pyrazol-1-yl)-3-cyclopentylpropanenitrile sulfuric acid salt; and -3-(4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1 H-pyrazol-1-yl)-3-cyclopentylpropanenitrile maleic acid salt; wherein the salt is crystalline. -3-(4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1 H-pyrazol-1-yl)-3-cyclopentylpropanenitrile phosphoric acid salt; -3-(4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1 H-pyrazol-1-yl)-3-cyclopentylpropanenitrile sulfuric acid salt; and -3-(4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1 H-pyrazol-1-yl)-3-cyclopentylpropanenitrile maleic acid salt; wherein the salt is crystalline.
A method for manufacturing a headrest having a pad layer supported by a headrest frame, the method comprising: disposing a skin member that covers the pad layer, in a mold; setting inside the skin member an injection-passage-forming member that has a foaming raw material injection passage,, (711, 712) that is formed so as to run substantially along a vertical direction of the headrest in an orientation of when a seat is attached, and in which a foaming raw material forming the pad layer is injected; and injecting the foaming raw material through the foaming raw material injection passage,, (711, 712), spreading the foaming raw material to the outer side of the headrest that is closer to the skin member from a center of the headrest including a gap between the skin member and the injection-passage-forming member, via the foaming raw material injection passage,, (711, 712), foaming the foaming raw material, and performing integral foam molding of the pad layer with the skin member, characterized in that, as the injection-passage-forming member, a member that has a head part supporting plate,, that can swing front and back around a middle part, in a front part of the injection-passage-forming member is used, and when the foaming raw material spreads in a gap between the head part supporting plate,, and the skin member, the head part supporting plate,, swings due to a flow pressure of the foaming raw material, and flow of the foaming raw material in the gap is prompted. disposing a skin member that covers the pad layer, in a mold; setting inside the skin member an injection-passage-forming member that has a foaming raw material injection passage,, (711, 712) that is formed so as to run substantially along a vertical direction of the headrest in an orientation of when a seat is attached, and in which a foaming raw material forming the pad layer is injected; and injecting the foaming raw material through the foaming raw material injection passage,, (711, 712), spreading the foaming raw material to the outer side of the headrest that is closer to the skin member from a center of the headrest including a gap between the skin member and the injection-passage-forming member, via the foaming raw material injection passage,, (711, 712), foaming the foaming raw material, and performing integral foam molding of the pad layer with the skin member, characterized in that, as the injection-passage-forming member, a member that has a head part supporting plate,, that can swing front and back around a middle part, in a front part of the injection-passage-forming member is used, and when the foaming raw material spreads in a gap between the head part supporting plate,, and the skin member, the head part supporting plate,, swings due to a flow pressure of the foaming raw material, and flow of the foaming raw material in the gap is prompted.
A user equipment for supporting multiple component carriers, CCs, through carrier aggregation, comprising: a radio frequency, RF, unit, and a processor, coupled to the RF unit, and configured to: - receive information associated with a maximum allowed power per CC of the multiple CCs through higher layer signaling; - determine a maximum transmission power P MAX,PUCCH of physical uplink control channel, PUCCH, and a maximum transmission power P MAX,PUSCH of physical uplink shared channel, PUSCH, for a CC x among the multiple CCs; and - determine a transmission power P PUCCH of the PUCCH within the maximum transmission power P MAX,PUCCH and a transmission power P PUSCH of the PUSCH within the maximum transmission power P MAX,PUSCH; and - control the RF unit to transmit the PUCCH at the transmission power P PUCCH and the PUSCH at the transmission power P PUSCH on the CC x, wherein the maximum transmission power P MAX,PUCCH is equal to P MAX,x, where P MAX,x is a maximum allowed power for the CC x, and wherein the maximum transmission power P MAX,PUSCH is equal to 'P MAX,X - P PUCCH ' in case of simultaneous transmission of the PUCCH and the PUSCH on the CC x, and wherein the multiple CCs share a maximum transmission power P MAX of the user equipment. a radio frequency, RF, unit, and a processor, coupled to the RF unit, and configured to: - receive information associated with a maximum allowed power per CC of the multiple CCs through higher layer signaling; - determine a maximum transmission power P MAX,PUCCH of physical uplink control channel, PUCCH, and a maximum transmission power P MAX,PUSCH of physical uplink shared channel, PUSCH, for a CC x among the multiple CCs; and - determine a transmission power P PUCCH of the PUCCH within the maximum transmission power P MAX,PUCCH and a transmission power P PUSCH of the PUSCH within the maximum transmission power P MAX,PUSCH; and - control the RF unit to transmit the PUCCH at the transmission power P PUCCH and the PUSCH at the transmission power P PUSCH on the CC x, - receive information associated with a maximum allowed power per CC of the multiple CCs through higher layer signaling; - determine a maximum transmission power P MAX,PUCCH of physical uplink control channel, PUCCH, and a maximum transmission power P MAX,PUSCH of physical uplink shared channel, PUSCH, for a CC x among the multiple CCs; and - determine a transmission power P PUCCH of the PUCCH within the maximum transmission power P MAX,PUCCH and a transmission power P PUSCH of the PUSCH within the maximum transmission power P MAX,PUSCH; and - control the RF unit to transmit the PUCCH at the transmission power P PUCCH and the PUSCH at the transmission power P PUSCH on the CC x,
A control device of an aerosol inhaler including a load heating an aerosol generation source, a temperature and an electric resistance value of the load being correlated, the control device comprising: a voltage sensor (16, 17) configured to output a voltage value applied to the load; a constant current circuit configured to output a constant current to the load; a control circuit configured to acquire the electric resistance value of the load or the temperature of the load based on output of the voltage sensor (16, 17) and the constant current; and an amplifier circuit (90, C13) configured to amplify a current input to the constant current circuit, wherein the control circuit includes an analog-digital converter to which the output of the voltage sensor is input, and characterised in that the analog-digital converter is configured such that the output of the voltage sensor (16, 17) is input without being amplified. a voltage sensor (16, 17) configured to output a voltage value applied to the load; a constant current circuit configured to output a constant current to the load; a control circuit configured to acquire the electric resistance value of the load or the temperature of the load based on output of the voltage sensor (16, 17) and the constant current; and an amplifier circuit (90, C13) configured to amplify a current input to the constant current circuit, wherein the control circuit includes an analog-digital converter to which the output of the voltage sensor is input, and characterised in that the analog-digital converter is configured such that the output of the voltage sensor (16, 17) is input without being amplified.
A method for strengthening a piece of glass, said method comprising: obtaining a piece of glass that is to be chemically strengthened; enhancing the glass to make it more susceptible to chemical strengthening, wherein the enhancing of the glass comprises placing the glass in a first sodium bath comprising sodium ions that migrate into exposed surfaces of the glass, wherein the first sodium bath is heated to a temperature in the range 350 degrees Celsius to 450 degrees Celsius; and subsequent to enhancing the glass, chemically strengthening the enhanced glass; wherein the enhanced glass is a cover glass for a portable electronic device; and wherein the chemically strengthening of the enhanced glass comprises: placing the enhanced glass in a potassium bath comprising potassium ions that exchange for sodium ions in the glass, wherein the potassium bath is heated to a temperature in the range 300 degrees Celsius to 500 degrees Celsius; and subsequent to placing the enhanced glass in the potassium bath, placing the enhanced glass in a second sodium bath comprising sodium ions that exchange for potassium ions in the glass wherein the second sodium bath is heated to a temperature in the range 350 degrees Celsius to 450 degrees Celsius. obtaining a piece of glass that is to be chemically strengthened; enhancing the glass to make it more susceptible to chemical strengthening, wherein the enhancing of the glass comprises placing the glass in a first sodium bath comprising sodium ions that migrate into exposed surfaces of the glass, wherein the first sodium bath is heated to a temperature in the range 350 degrees Celsius to 450 degrees Celsius; and subsequent to enhancing the glass, chemically strengthening the enhanced glass; wherein the enhanced glass is a cover glass for a portable electronic device; and wherein the chemically strengthening of the enhanced glass comprises: placing the enhanced glass in a potassium bath comprising potassium ions that exchange for sodium ions in the glass, wherein the potassium bath is heated to a temperature in the range 300 degrees Celsius to 500 degrees Celsius; and subsequent to placing the enhanced glass in the potassium bath, placing the enhanced glass in a second sodium bath comprising sodium ions that exchange for potassium ions in the glass wherein the second sodium bath is heated to a temperature in the range 350 degrees Celsius to 450 degrees Celsius. placing the enhanced glass in a potassium bath comprising potassium ions that exchange for sodium ions in the glass, wherein the potassium bath is heated to a temperature in the range 300 degrees Celsius to 500 degrees Celsius; and subsequent to placing the enhanced glass in the potassium bath, placing the enhanced glass in a second sodium bath comprising sodium ions that exchange for potassium ions in the glass wherein the second sodium bath is heated to a temperature in the range 350 degrees Celsius to 450 degrees Celsius.
A transmission device (46,114) capable of transmitting data, said transmission device (46,114) comprising: - an oscillator capable of generating at least one carrier wave, - a transmitter comprising: • at least one input connected to the oscillator, • an activation input provided to receive an activation signal; the activation input being capable of receiving a signal representative of data to be transmitted; • at least one output capable of generating a carrier wave modulated by the signal representative of the data to be transmitted; • an additional output; - a communication link connected to the output of the transmitter, - at least one power line connected to the communication link at a connection point; - at least one capacitive coupling component connected between the output of the transmitter and the connection point, the capacitive coupling component being capable of transmitting the modulated carrier wave and blocking the transmission of the supply voltage, - an additional communication link connected to the additional output, - an additional power line connected to the additional communication link at an additional connection point, - at least one additional capacitive coupling component connected between the additional output of the transmitter and the additional connection point, - a transformer connected to the power line, said transformer being capable of blocking the transmission of the modulated carrier wave. - an oscillator capable of generating at least one carrier wave, - a transmitter comprising: • at least one input connected to the oscillator, • an activation input provided to receive an activation signal; the activation input being capable of receiving a signal representative of data to be transmitted; • at least one output capable of generating a carrier wave modulated by the signal representative of the data to be transmitted; • an additional output; • at least one input connected to the oscillator, • an activation input provided to receive an activation signal; the activation input being capable of receiving a signal representative of data to be transmitted; • at least one output capable of generating a carrier wave modulated by the signal representative of the data to be transmitted; • an additional output; - a communication link connected to the output of the transmitter, - at least one power line connected to the communication link at a connection point; - at least one capacitive coupling component connected between the output of the transmitter and the connection point, the capacitive coupling component being capable of transmitting the modulated carrier wave and blocking the transmission of the supply voltage, - an additional communication link connected to the additional output, - an additional power line connected to the additional communication link at an additional connection point, - at least one additional capacitive coupling component connected between the additional output of the transmitter and the additional connection point, - a transformer connected to the power line, said transformer being capable of blocking the transmission of the modulated carrier wave.
A DEVICE FOR CRUSHING AND DISSOLVING/SUSPENDING DANGEROUS DRUGS FOR ENTERAL ADMINISTRATION, comprising a mixing bag, a syringe with which water is injected to disperse the powder which the tablet has become once crushed inside the bag and with which the drug is suctioned once diluted and mixed and a three-way valve, characterised in that the mixing bag for crushing and dispersing the solid drug in water is provided with a first opening suitable as an inlet for the insertion therein of the tablet that constitutes the drug and a second opening for the passage of fluid and in that said syringe is an enteral syringe and is coupled to the second opening of the mixing bag by interposing the three-way valve which, hermetically connected to said opening, has: with an ENFIt-type connection for connecting the enteral syringe; with an extension tube provided with a connector for a tube at the distal end thereof; and with a movable stopcock which, depending on the position it is located in, opens the passage of fluid from the syringe to the opening of the mixing bag, to inject the solution water and to suction the mixture once dissolution has been performed, or from the syringe to the tube to deliver the diluted drug directly into the patient's mouth or by connecting the connector to a nasogastric tube, without the need to disconnect the enteral syringe.
Method for operating a centralized radio access network, C-RAN, wherein said network comprises a number of base stations (BS_A, BS_B), wherein at least a part of the base station processing is performed at a centralized processing entity, and wherein a virtualized environment is provided at said centralized processing entity such that said base stations (BS_A, BS_B) run in virtual machines (VM1, VM2), characterized in that relocation of base station processing from a first virtual machine, which performs base station processing for a given base station (BS_A) that serves a particular cell - initial cell (Ci BS_A) -, to a second virtual machine is performed by introducing an additional cell - target cell (Ct BS_A) - for which said second virtual machine performs base station processing, transmitting via at least a part of the antennas of said base station (BS_A) at the same time signals for both said initial cell (Ci BS_A) and said target cell (Ct BS-A), and handing over the user terminals (UE1,..., UEn) that are assigned to said initial cell (Ci BS_A) to said target cell (Ct BS_A).