mhurhangee/ep-ind-claims huggingface dataset:
A process of producing a phosphor particle that comprises a core surrounded by a shell that absorbs ultraviolet photons to emit green-spectrum light, the process comprising: contacting a core particle with a precursor comprising Na(La,Ce,Tb)P 2 O 7 to form a mixture; and heating the mixture to a temperature sufficient to decompose the Na(La,Ce,Tb)P 2 O 7 to evolve and melt an NaPO 3 flux and initiate deposition of a (La,Ce,Tb)PO 4 shell on each core particle in the presence of the molten NaPO 3 flux. contacting a core particle with a precursor comprising Na(La,Ce,Tb)P 2 O 7 to form a mixture; and heating the mixture to a temperature sufficient to decompose the Na(La,Ce,Tb)P 2 O 7 to evolve and melt an NaPO 3 flux and initiate deposition of a (La,Ce,Tb)PO 4 shell on each core particle in the presence of the molten NaPO 3 flux.
A method for coordination of beacon transmissions between a first network and a second network, the first network and the second network being Public Land Mobile networks, PLMN, the method being performed by an access node of the first network and comprising the steps of: - determining, for each of a plurality of candidate slots, whether the candidate slot is used by any neighboring network node of the second network for beacon transmission; - selecting, as a beacon slot, one of the plurality of candidate slots that is determined not to be used by any neighboring network node of the second network for beacon transmission; and - transmitting a beacon in the beacon slot. - determining, for each of a plurality of candidate slots, whether the candidate slot is used by any neighboring network node of the second network for beacon transmission; - selecting, as a beacon slot, one of the plurality of candidate slots that is determined not to be used by any neighboring network node of the second network for beacon transmission; and - transmitting a beacon in the beacon slot.
A method of managing a capability of communicating using a radio access technology by a user equipment, UE, in a mobile communication system, the method comprising: disabling, in response to determining that a preferred mode of voice communication of the UE is not supported via a second radio access technology in a first location of the UE, a transceiver of the UE for the second radio access technology; reselecting a first radio access technology; receiving, from a core network node of the first radio access technology in a second location of the UE, information indicating that a second radio access network is arranged to support the preferred mode of voice communication in a second area of the second radio access technology related to the second location; and enabling the transceiver of the UE for the second radio access technology based on the received information. disabling, in response to determining that a preferred mode of voice communication of the UE is not supported via a second radio access technology in a first location of the UE, a transceiver of the UE for the second radio access technology; reselecting a first radio access technology; receiving, from a core network node of the first radio access technology in a second location of the UE, information indicating that a second radio access network is arranged to support the preferred mode of voice communication in a second area of the second radio access technology related to the second location; and enabling the transceiver of the UE for the second radio access technology based on the received information.
A method for automatically provisioning a connection between a public cloud and an on-premises resource in a private network, the method comprising: an act of determining that an application running in the public cloud is to access an on-premises resource of the private network; an act of automatically performing the following in response to the act of determining: an act of identifying a bridging infrastructure that provides access to the on-premises resource; an act of accessing credentials used to connect to the bridging infrastructure; an act of securely providing application-specific credentials to the application on the public cloud, the application-specific credentials usable by an agent on the public cloud to connect to the identified bridging infrastructure; characterised in that the act of automatically performing further comprises an act of creating a configuration package that includes resource-specific credentials, an executable for a control and the identity of the on-premises resource, the executable for the control configured to be executed upon selection by a user and provides connectivity between the on-premises resource on private network and the bridging infrastructure using the resource-specific credentials. an act of determining that an application running in the public cloud is to access an on-premises resource of the private network; an act of automatically performing the following in response to the act of determining: an act of identifying a bridging infrastructure that provides access to the on-premises resource; an act of accessing credentials used to connect to the bridging infrastructure; an act of securely providing application-specific credentials to the application on the public cloud, the application-specific credentials usable by an an act of identifying a bridging infrastructure that provides access to the on-premises resource; an act of accessing credentials used to connect to the bridging infrastructure; an act of securely providing application-specific credentials to the application on the public cloud, the application-specific credentials usable by an agent on the public cloud to connect to the identified bridging infrastructure; characterised in that the act of automatically performing further comprises an act of creating a configuration package that includes resource-specific credentials, an executable for a control and the identity of the on-premises resource, the executable for the control configured to be executed upon selection by a user and provides connectivity between the on-premises resource on private network and the bridging infrastructure using the resource-specific credentials.
A microwave feeding apparatus for feeding a microwave into a processing chamber, comprising: a waveguide (22, 42, 52) connected to a microwave generator, said waveguide adapted to guide a microwave generated by said microwave generator, said waveguide having a microwave outlet opening (22a, 42a, 52a) for outputting said microwave; and a microwave emitting member adapted to cause propagation of said microwave supplied at a central part thereof in a direction perpendicular to a direction in which said microwave is supplied, said microwave emitting member further adapted to introduce said microwave into said processing chamber via a plurality of slots (30, 30A, 30B), wherein said waveguide (22, 42, 52) connected to said microwave generator is a rectangular waveguide having a rectangular cross section, wherein said rectangular waveguide (22, 42, 52) has a cross section such that a longer edge of said cross section has a length of 1/2 of a wavelength of said microwave in said rectangular waveguide, and wherein said waveguide (22, 42, 52) connected to said microwave generator extends in plural directions symmetrically with respect to said microwave outlet opening (22a, 42a, 52a) and has a straight shape; and wherein the microwave is supplied from both sides of the rectangular waveguide. a waveguide (22, 42, 52) connected to a microwave generator, said waveguide adapted to guide a microwave generated by said microwave generator, said waveguide having a microwave outlet opening (22a, 42a, 52a) for outputting said microwave; and a microwave emitting member adapted to cause propagation of said microwave supplied at a central part thereof in a direction perpendicular to a direction in which said microwave is supplied, said microwave emitting member further adapted to introduce said microwave into said processing chamber via a plurality of slots (30, 30A, 30B), wherein said waveguide (22, 42, 52) connected to said microwave generator is a rectangular waveguide having a rectangular cross section, wherein said rectangular waveguide (22, 42, 52) has a cross section such that a longer edge of said cross section has a length of 1/2 of a wavelength of said microwave in said rectangular waveguide, and wherein said waveguide (22, 42, 52) connected to said microwave generator extends in plural directions symmetrically with respect to said microwave outlet opening (22a, 42a, 52a) and has a straight shape; and wherein the microwave is supplied from both sides of the rectangular waveguide.
An apparatus comprising: a first tank which comprises a first and a second wall (103, 105), a first transducer, wherein said first transducer is adapted to transmit ultrasonic waves of a first wavelength into said first tank, and said first tank is configured to establish a substantiall y standing ultras onic wave pattern of ultrasonic waves inside the first tank; and a disposer ( 109.1 and 109.2) adapted to dispose a textile into the first tank at a first distance from said first transducer, characterized in that said first distance is determined based on said first wavelength and, wherein the first transducer is coupled to the first wall and the second wall is configured to reflect the ultrasonic waves and the first wall and the second are separated from each other to establish the substantially standing wave pattern into the first tank resulting in multiple cavitation zones and wherein the apparatus is configured to operate on a sweep frequency of ultrasonic waves, the sweep frequency is a band of frequencies around a first frequency, wherein said first frequency corresponds to said first wavelength and the disposer ( 109.1 and 109.2) is configured to dispose the textile at said first distance, said first distance is determined based on said first frequency.
A bundle comprising two or more cases (2a, 2b), each case having a width and a length, wherein the cases are releasably attached together by attachment means defining at least one twisting axis, wherein the cases can be detached by being twisted apart along said twisting axis, and wherein the width of each case is from 50 mm to 200 mm, preferably from 75 mm to 150 mm, and wherein the attachment means comprises one or more of the following: - two or more aligned glue spots (12a, 12b); - a single glue spot, wherein the glue spot is in the form of a stripe; - a single glue spot which is not in the form of a stripe; and characterised in that the cases are of the tray-and-hood type and the attachment means are placed on the hood of the tray-and-hood cases. - two or more aligned glue spots (12a, 12b); - a single glue spot, wherein the glue spot is in the form of a stripe; - a single glue spot which is not in the form of a stripe; and characterised in that the cases are of the tray-and-hood type and the attachment means are placed on the hood of the tray-and-hood cases.
Surgical motor control device for controlling a surgical drive unit (14, 16, 18) comprising a sensorless rotational electric motor with M motor windings (R MW_1,..., R MW_M), wherein the sensorless motor is a motor not having any sensors for determining a rotational speed of the drive units during operation, wherein M being a natural number which is greater than or equal to two, the motor control device being configured to perform a method for controlling the drive unit (14, 16, 18), the surgical motor control device further comprising a rotor position determining device for determining a rotor position of the electric motor in order to control a supplying of current to the M motor windings (R MW_1,..., R MW_M), wherein the rotor position determining device comprises a current supply interruption device which is configured to separate at least one of the M motor windings (R MW_1,..., R MW_M) from a power supply of the drive unit (14, 16, 18) for a time interval t interrupt in order to determine a position of a rotor of the electric motor, wherein the rotor position determining device is configured to measure the counter-electromotive force in at least one of the M motor windings (R MW_1,..., R MW_M) during the time interval t interrupt, and wherein the rotor position determining device comprises a calculating unit for calculating an actual position of the rotor from the measured counter-electromotive force, wherein the counter-electromotive force is the voltage induced in the currentless motor winding separated from the power supply, characterized in that the rotor position determining device is configured to perform the measurement of the counter-electromotive force at one of the M motor windings (R MW_1,..., R MW_M) only in the time interval t interrupt between t M -Δt and t M +Δt having a length of 2Δt, the motor voltage (U MW_1,..., U MW_M) applied to the motor winding (R MW_1,..., R MW_M) being zero in the time interval t interrupt and at the point in time t M in the case of a continuous supply of current the motor voltage applied to the motor winding would be zero, and in that 2Δt being significantly less than the time period of the motor voltage (U MW_1,..., U MW_M) as only low effective voltages have to be switched to zero, wherein a current supply of final stage circuits (92a, 92b, 92c) is interrupted at the zero crossing of the generated sinusoidal signal, and in that via corresponding measuring branches of the rotor position determining device, which are connected to the motor windings (R MW_1,..., R MW_M), the measured counter-electromotive force is evaluated and further processed for controlling purposes in cooperation with a controller and a digital signal processor.
A power production system comprising: a flue gas generator configured to generate a flue gas that includes carbon dioxide and oxygen; a fuel supply; a fuel cell assembly that includes: a cathode section configured to receive the flue gas generated by the flue gas generator, and to output cathode exhaust, and an anode section configured to receive fuel from the fuel supply, and to output anode exhaust that contains hydrogen and carbon dioxide; a methanator configured to receive the anode exhaust, convert at least a portion of the hydrogen in the anode exhaust to methane, and output methanated anode exhaust; a chiller assembly configured to cool the methanated anode exhaust to a predetermined temperature so as to liquefy carbon dioxide in the methanated anode exhaust; and a gas separation assembly configured to receive the cooled methanated anode exhaust and separate the liquefied carbon dioxide from residual fuel gas. a flue gas generator configured to generate a flue gas that includes carbon dioxide and oxygen; a fuel supply; a fuel cell assembly that includes: a cathode section configured to receive the flue gas generated by the flue gas generator, and to output cathode exhaust, and an anode section configured to receive fuel from the fuel supply, and to output anode exhaust that contains hydrogen and carbon dioxide; a cathode section configured to receive the flue gas generated by the flue gas generator, and to output cathode exhaust, and an anode section configured to receive fuel from the fuel supply, and to output anode exhaust that contains hydrogen and carbon dioxide; a methanator configured to receive the anode exhaust, convert at least a portion of the hydrogen in the anode exhaust to methane, and output methanated anode exhaust; a chiller assembly configured to cool the methanated anode exhaust to a predetermined temperature so as to liquefy carbon dioxide in the methanated anode exhaust; and a gas separation assembly configured to receive the cooled methanated anode exhaust and separate the liquefied carbon dioxide from residual fuel gas.
A method of screening for the onset or predisposition to the onset of a malignant large intestine neoplasm or monitoring the progress of a malignant large intestine neoplasm in an individual, said method comprising measuring the level of expression of one or more genes or transcripts selected from: (i) the gene, genes or transcripts detected by Affymetrix probeset ID 205513_at; and/or (ii) TCN1 in a biological sample from said individual wherein a higher level of expression of the genes or transcripts of group (i) and/or group (ii) relative to control levels is indicative of a malignant neoplastic large intestine cell or a cell predisposed to the onset of a malignant neoplastic state. (i) the gene, genes or transcripts detected by Affymetrix probeset ID 205513_at; and/or (ii) TCN1
An LED module (1, 201, 301) comprising: a light-emitting unit including a plurality of LEDs connected in series to one another; a sensor unit (12, 312); a power interrupt circuit (13, 223) inserted in a power supply path through which the light-emitting unit is supplied with power from a first power source; a control circuit (14, 314) adapted to control the power interrupt circuit (13, 223) to adjust an amount of power to be output to the light-emitting unit according to the output of the sensor unit (12, 312); an internal power source; and a voltage supply circuit adapted to supply the control circuit (14, 314) with a voltage output from the internal power source while the power interrupt circuit (13, 223) is interrupting the power supplied from the first power source to the light-emitting unit, wherein the LED module (1, 201, 301) is characterized in that the voltage supply circuit is adapted to supply the control circuit (14, 314) with a voltage equivalent to the voltage drop between the ends of a group of LEDs included in the plurality of LEDs while the light-emitting unit is being supplied with power from the first power source. a light-emitting unit including a plurality of LEDs connected in series to one another; a sensor unit (12, 312); a power interrupt circuit (13, 223) inserted in a power supply path through which the light-emitting unit is supplied with power from a first power source; a control circuit (14, 314) adapted to control the power interrupt circuit (13, 223) to adjust an amount of power to be output to the light-emitting unit according to the output of the sensor unit (12, 312); an internal power source; and a voltage supply circuit adapted to supply the control circuit (14, 314) with a voltage output from the internal power source while the power interrupt circuit (13, 223) is interrupting the power supplied from the first power source to the light-emitting unit, wherein the LED module (1, 201, 301) is characterized in that the voltage supply circuit is adapted to supply the control circuit (14, 314) with a voltage equivalent to the voltage drop between the ends of a group of LEDs included in the plurality of LEDs while the light-emitting unit is being supplied with power from the first power source.
A pharmaceutical composition for use in a method of treating a mammal having a central nervous system disorder, wherein said composition comprises a neurotrophic factor and is administered by intermittent convection enhanced delivery to the CNS of said mammal at a rate that opposes the tissue clearance rate of said neurotrophic factor, and wherein said administering maintains an effective therapeutic dose of neurotrophic factor, wherein the intermissions between administration of said neurotrophic factor are at least about one week.
A low-temperature device for separating and purifying gas, comprising a primary heat exchanger (2, 12), a secondary heat exchanger (3, 13), a quaternary heat exchanger (6, 15), at least one small-sized low-temperature refrigerating machine (9, 19), and at least one liquid collecting tank (4, 14), wherein the small-sized low-temperature refrigerating machine (9, 19) comprises a first cold head and a second cold head, the secondary heat exchanger (3, 13) is provided on the first cold head to form a primary cold head heat exchanger, the quaternary heat exchanger (6, 15) is provided on the second cold head to form a secondary cold head heat exchanger, a mixed gas inlet, a mixed gas outlet, a purified gas inlet, and a purified gas outlet are provided on the primary heat exchanger (2, 12), the mixed gas outlet is connected to an inlet of the liquid collecting tank (4, 14), a gas outlet of the liquid collecting tank (4, 14) is connected to an inlet of the secondary cold head heat exchanger, an outlet of the secondary cold head heat exchanger is connected to the purified gas inlet at a cold end of the primary heat exchanger (2, 12), and the purified gas outlet is connected to a hot end of the primary heat exchanger (2, 12), characterized in that the mixed gas outlet is connected to the inlet of the liquid collecting tank through the primary cold head heat exchanger.
A rotary actuator assembly comprising: a knob; an electric motor for providing a haptic effect at the knob and/or for driving the knob, the electric motor comprising a shaft; a gear assembly rotationally coupling the knob to the shaft of the electric motor, the gear assembly including a rotary oil damper damping the rotation of the knob; an optical rotation detection device for detecting direction, speed and/or angle of rotation of the knob and/or of the electric motor; wherein the optical rotation detection device is detecting the rotation of an element (24, 36) on the shaft; wherein the optical rotation detection device comprises a light gate and a plurality of light barriers; wherein the light barriers are defined by the element on the shaft; wherein the gear assembly comprises a worm gear assembly that includes a worm gear and a worm; wherein the element on the shaft is the worm of the worm gear assembly, in particular wherein the worm is integrally formed with the element defining the light barriers. a knob; an electric motor for providing a haptic effect at the knob and/or for driving the knob, the electric motor comprising a shaft; a gear assembly rotationally coupling the knob to the shaft of the electric motor, the gear assembly including a rotary oil damper damping the rotation of the knob; an optical rotation detection device for detecting direction, speed and/or angle of rotation of the knob and/or of the electric motor; wherein the optical rotation detection device is detecting the rotation of an element (24, 36) on the shaft; wherein the optical rotation detection device comprises a light gate and a plurality of light barriers; wherein the light barriers are defined by the element on the shaft; wherein the gear assembly comprises a worm gear assembly that includes a worm gear and a worm; wherein the element on the shaft is the worm of the worm gear assembly, in particular wherein the worm is integrally formed with the element defining the light barriers.