mhurhangee/ep-ind-claims huggingface dataset:
A training device, the training device comprising: a body that is configured to be received at a first position in a housing of an inhaler, wherein the body comprises an interface arranged to connect to a canister interface in the housing of the inhaler; an electrical circuit configured to perform one or more functions; and a circuit triggering mechanism that comprises a switch for enabling the electrical circuit to perform the one or more functions when the switch is closed, wherein the circuit triggering mechanism is configured such that the switch is closed when the body is pressed from the first position towards the canister interface and into a second position in the housing of the inhaler; characterized in that: the training device is for use in an inhaler in place of a medication canister; the body is canister-shaped; and the electrical circuit and circuit triggering mechanism are contained within the body. a body that is configured to be received at a first position in a housing of an inhaler, wherein the body comprises an interface arranged to connect to a canister interface in the housing of the inhaler; an electrical circuit configured to perform one or more functions; and a circuit triggering mechanism that comprises a switch for enabling the electrical circuit to perform the one or more functions when the switch is closed, wherein the circuit triggering mechanism is configured such that the switch is closed when the body is pressed from the first position towards the canister interface and into a second position in the housing of the inhaler; the training device is for use in an inhaler in place of a medication canister; the body is canister-shaped; and the electrical circuit and circuit triggering mechanism are contained within the body.
An apparatus of an evolved Node B, eNodeB, operable to perform multiuser non-orthogonal superposition transmissions for multimedia broadcast multicast service, MBMS, the apparatus comprising one or more processors and memory configured to: modulate a first physical multicast channel, PMCH, signal for MBMS with a first modulation and coding scheme, MCS; modulate a second PMCH signal for MBMS with a second MCS; multiplex the first PMCH signal and the second PMCH signal to form an aggregate PMCH signal; and transmit the aggregate PMCH signal to a plurality of UEs using multiuser non-orthogonal superposition for MBMS, wherein the first PMCH signal in the aggregate PMCH signal is transmitted using physical resource blocks, PRBs, that are partially or fully overlapped in time and frequency with PRBs of the second PMCH signal in the aggregate PMCH signal. modulate a first physical multicast channel, PMCH, signal for MBMS with a first modulation and coding scheme, MCS; modulate a second PMCH signal for MBMS with a second MCS; multiplex the first PMCH signal and the second PMCH signal to form an aggregate PMCH signal; and transmit the aggregate PMCH signal to a plurality of UEs using multiuser non-orthogonal superposition for MBMS, wherein the first PMCH signal in the aggregate PMCH signal is transmitted using physical resource blocks, PRBs, that are partially or fully overlapped in time and frequency with PRBs of the second PMCH signal in the aggregate PMCH signal.
A compound of formula, wherein R 1 is hydroxy, C 1-6 alkyl, C 1-6 alkylcarbonyl-O-, C 1-6 alkyl-S-, azido or C 2-6 alkenyl; R 2 is C 1-6 alkyl, C 1-6 alkoxyC 1-6 alkyl, C 3-7 cycloalkyl, C 2-6 alkynyl, C 2-6 alkenyl, benzyl and thiophenyl; R 3 is hydrogen or C 1-6 alkylcarbonyl; or pharmaceutically acceptable salt, enantiomer or diastereomer thereof. R 1 is hydroxy, C 1-6 alkyl, C 1-6 alkylcarbonyl-O-, C 1-6 alkyl-S-, azido or C 2-6 alkenyl; R 2 is C 1-6 alkyl, C 1-6 alkoxyC 1-6 alkyl, C 3-7 cycloalkyl, C 2-6 alkynyl, C 2-6 alkenyl, benzyl and thiophenyl; R 3 is hydrogen or C 1-6 alkylcarbonyl;
A surgical robot system, comprising a slave unit and a computing unit, wherein the slave unit comprises a robotic arm, a surgical instrument, a cannula and a sensing element, wherein the cannula is configured to be able to generate a point-contact when brought into contact with the surgical instrument, the robotic arm is configured to drive the surgical instrument to pivot about a remote center of motion, the cannula is in detachable rigid connection with a terminal end of the robotic arm, and an axis of the cannula extends through the remote center of motion, the surgical instrument is detachably connected with the terminal end of the robotic arm and extends distally through the cannula, the sensing element is disposed on the cannula and configured to sense an axial deformation of the cannula; the computing unit is configured to determine, according to a principle of torque balance, a radial force acting on a terminal end of the surgical instrument based on a force acting on the cannula which results from the point-contact and sensed and determined by the sensing element. the slave unit comprises a robotic arm, a surgical instrument, a cannula and a sensing element, wherein the cannula is configured to be able to generate a point-contact when brought into contact with the surgical instrument, the robotic arm is configured to drive the surgical instrument to pivot about a remote center of motion, the cannula is in detachable rigid connection with a terminal end of the robotic arm, and an axis of the cannula extends through the remote center of motion, the surgical instrument is detachably connected with the terminal end of the robotic arm and extends distally through the cannula, the sensing element is disposed on the cannula and configured to sense an axial deformation of the cannula; the cannula is configured to be able to generate a point-contact when brought into contact with the surgical instrument, the robotic arm is configured to drive the surgical instrument to pivot about a remote center of motion, the cannula is in detachable rigid connection with a terminal end of the robotic arm, and an axis of the cannula extends through the remote center of motion, the surgical instrument is detachably connected with the terminal end of the robotic arm and extends distally through the cannula, the sensing element is disposed on the cannula and configured to sense an axial deformation of the cannula; the computing unit is configured to determine, according to a principle of torque balance, a radial force acting on a terminal end of the surgical instrument based on a force acting on the cannula which results from the point-contact and sensed and determined by the sensing element.
Method of operating a sealing monitoring system in a sealing of a rotatable shaft, comprising the sealing, provided with a flushing liquid system, between the rotatable shaft and a stationary housing, a first liquid detector configured to detect presence of flushing liquid in the flushing liquid system, the method comprising - detecting a first flushing liquid presence status in the flushing liquid system by means of the first liquid detector, characterized in that a) in case the first flushing liquid presence status is affirmative, transmitting the first flushing liquid presence status to a further processing using a wireless data communication system with a first data transmission interval between the transmissions, and b) in case the first flushing liquid presence status is negative, transmitting the first flushing liquid presence status to further processing using the wireless data communication system with a second data transmission interval being shorter than the first transmission interval between the transmissions. - detecting a first flushing liquid presence status in the flushing liquid system by means of the first liquid detector, characterized in that a) in case the first flushing liquid presence status is affirmative, transmitting the first flushing liquid presence status to a further processing using a wireless data communication system with a first data transmission interval between the transmissions, and b) in case the first flushing liquid presence status is negative, transmitting the first flushing liquid presence status to further processing using the wireless data communication system with a second data transmission interval being shorter than the first transmission interval between the transmissions. a) in case the first flushing liquid presence status is affirmative, transmitting the first flushing liquid presence status to a further processing using a wireless data communication system with a first data transmission interval between the transmissions, and b) in case the first flushing liquid presence status is negative, transmitting the first flushing liquid presence status to further processing using the wireless data communication system with a second data transmission interval being shorter than the first transmission interval between the transmissions.
A nuclear power plant, comprising: a primary containment vessel comprising a dry well configured to be provided with an equipment at a level lower than a reactor core; a plurality of doors (20,21), comprising at least an inner door and an outer door, provided at the primary containment vessel to access to the dry well; the nuclear power plant being characterized by further comprising an access tunnel provided between the inner door and the outer door, the access tunnel being configured to be able to carry the equipment in and out from the dry well at the level lower than the reactor core, wherein the plurality of doors (20, 21) and the access tunnel are provided at the level lower than the reactor core. a primary containment vessel comprising a dry well configured to be provided with an equipment at a level lower than a reactor core; a plurality of doors (20,21), comprising at least an inner door and an outer door, provided at the primary containment vessel to access to the dry well;
A dialysis machine having a hydraulic system that is intended for providing a dialysis solution or an element of the dialysis solution, wherein the hydraulic system has a degassing pump for degassing the dialysis solution or an element of the dialysis solution, and having a pneumatic system in which a vacuum is present at least at times for operating a component of the dialysis machine, characterized in that there is a connection line between the suction side of the degassing pump and the pneumatic system for vacuum generation in the pneumatic system so that a vacuum generation takes place in the pneumatic system by means of the degassing pump.
A method for producing an aluminum-scandium alloy having a scandium content of 0.41-4 wt. %, comprising the following steps of: a) melting aluminum and a mixture of salts containing sodium, potassium and aluminum fluorides, wherein the cryolite ratio of the mixture of potassium, sodium and aluminum fluorides is maintained within the range of 1.3 to 1.7 and the content of sodium fluoride at 1-15 wt. %; b) carrying out, while continuously supplying scandium oxide to the molten mixture of salts, simultaneous aluminothermic reduction of scandium from its oxide and electrolytic decomposition of the formed alumina, wherein the concentration of scandium oxide in the molten mixture of salts is maintained at 1 to 8 wt. %; c) recovering at least a portion of the obtained aluminum-scandium alloy; d) adding aluminum and repeating steps b) - c); wherein, with the use of said molten mixture of salts, the step d) is performed repeatedly in at least four cycles of producing aluminum-scandium alloy. a) melting aluminum and a mixture of salts containing sodium, potassium and aluminum fluorides, wherein the cryolite ratio of the mixture of potassium, sodium and aluminum fluorides is maintained within the range of 1.3 to 1.7 and the content of sodium fluoride at 1-15 wt. %; b) carrying out, while continuously supplying scandium oxide to the molten mixture of salts, simultaneous aluminothermic reduction of scandium from its oxide and electrolytic decomposition of the formed alumina, wherein the concentration of scandium oxide in the molten mixture of salts is maintained at 1 to 8 wt. %; c) recovering at least a portion of the obtained aluminum-scandium alloy; d) adding aluminum and repeating steps b) - c); wherein, with the use of said molten mixture of salts, the step d) is performed repeatedly in at least four cycles of producing aluminum-scandium alloy.
A microfabricated scintillation detector, comprising a channel structure for containing a liquid scintillator material therein and flowing said liquid scintillator material therethrough, said channel structure comprising a first set of adjacent channel portions arranged in a first layer and in fluid communication with each other, and a second set of adjacent channel portions arranged in a second layer and in fluid communication with each other, wherein the channel structure simultaneously forms a light guiding structure for guiding scintillation light generated upon interaction of radiation with said liquid scintillator material in said adjacent channel portions (32, 38) towards a longitudinal end of the corresponding channel portion (32, 38), said scintillation detector further comprising a plurality of photo detectors, arranged such as to receive said scintillation light, characterized by said second set of adjacent channel portions being directed transversely with respect to the first set of adjacent channel portions,wherein said first and second layers (34, 40) are stacked on top of each other with a separation layer in between, said separation layer integrally connecting said first and second layers (34, 40). said channel structure comprising a first set of adjacent channel portions arranged in a first layer and in fluid communication with each other, and a second set of adjacent channel portions arranged in a second layer and in fluid communication with each other, wherein the channel structure simultaneously forms a light guiding structure for guiding scintillation light generated upon interaction of radiation with said liquid scintillator material in said adjacent channel portions (32, 38) towards a longitudinal end of the corresponding channel portion (32, 38), said scintillation detector further comprising a plurality of photo detectors, arranged such as to receive said scintillation light, characterized by said second set of adjacent channel portions being directed transversely with respect to the first set of adjacent channel portions,wherein said first and second layers (34, 40) are stacked on top of each other with a separation layer in between, said separation layer integrally connecting said first and second layers (34, 40).
Car body element for the car body of a rail vehicle, having a support structure, a frame profile and at least one covering element, wherein the support structure is printed onto the covering element in a first section using a 3D printing process and is formed in a second section by at least one prefabricated support element (16, 17, 18, 22), wherein the at least one prefabricated support element (16, 17, 18, 22) forms a connection between the first section of the support structure and the covering element and/or between the frame profile and the first section of the support structure and/or between a longitudinal profile integrated into the covering element and the first section of the support structure.
A method for receiving a physical downlink shared channel, PDSCH, signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving, through higher layer signaling, one or more PDSCH resource element mapping and quasi-co-location indicator, PQI, parameter sets; receiving downlink control information, DCI, corresponding to either a DCI format 2D having a PQI field or a DCI format 1A which does not have the PQI field; and receiving a PDSCH signal scheduled by the DCI using a specific PQI parameter set among the one or more PQI parameter sets, wherein when the DCI corresponds to the DCI format 1A and the PDSCH signal is scheduled on a multicast broadcast single frequency network, MBSFN, subframe, the specific PQI parameter set used for receiving the PDSCH signal is determined to be a default PQI parameter set, and wherein the default PQI parameter set corresponds to a lowest indexed PQI parameter set among the one or more PQI parameter sets. receiving, through higher layer signaling, one or more PDSCH resource element mapping and quasi-co-location indicator, PQI, parameter sets; receiving downlink control information, DCI, corresponding to either a DCI format 2D having a PQI field or a DCI format 1A which does not have the PQI field; and receiving a PDSCH signal scheduled by the DCI using a specific PQI parameter set among the one or more PQI parameter sets, wherein when the DCI corresponds to the DCI format 1A and the PDSCH signal is scheduled on a multicast broadcast single frequency network, MBSFN, subframe, the specific PQI parameter set used for receiving the PDSCH signal is determined to be a default PQI parameter set, and wherein the default PQI parameter set corresponds to a lowest indexed PQI parameter set among the one or more PQI parameter sets.
A frozen dessert composition, comprising about 6 to 15% by weight of palatinose based on the total weight of the composition; and about 10 to 30% by weight of a dextrin or a combination of a dextrin and a soluble dietary fiber based on the total weight of the composition. about 6 to 15% by weight of palatinose based on the total weight of the composition; and about 10 to 30% by weight of a dextrin or a combination of a dextrin and a soluble dietary fiber based on the total weight of the composition.
A method for managing configuration of one or more cells using multiple connectivity in a wireless network, performed by a UE, comprising: establishing a first connection served by at least a first cell; receiving a configuration message to establish a second connection served by at least a second cell; determining a timing difference between at least the first cell and at least the second cell, wherein the timing difference indicates an offset in subframe alignment between at least the first cell and at least the second cell; reporting the timing difference to at least the first cell over the first connection wherein reporting the timing difference is based at least in part on detecting expiration of a prohibit timer; and configuring the second connection served by at least the second cell based at least in part on reporting the timing difference to at least the first cell. establishing a first connection served by at least a first cell; receiving a configuration message to establish a second connection served by at least a second cell; determining a timing difference between at least the first cell and at least the second cell, wherein the timing difference indicates an offset in subframe alignment between at least the first cell and at least the second cell; reporting the timing difference to at least the first cell over the first connection wherein reporting the timing difference is based at least in part on detecting expiration of a prohibit timer; and configuring the second connection served by at least the second cell based at least in part on reporting the timing difference to at least the first cell.
A composition comprising xanthohumol and a vinylpyrrolidone-vinyl acetate copolymer; wherein said composition is in the form of an hot-melt extrudate.
A microstrip microwave transmission line structure, comprising: a dielectric structure; a ground plane conductor a strip conductor disposed over the dielectric structure and separated from the ground plane conductor by the dielectric structure, the dielectric structure having open ended trench therein; wherein the strip conductor is disposed in the trench; wherein the strip conductor comprises a plurality of stacked metal layers (M3a, M3b, M3c) disposed in the trench; and wherein such stacked metal layers have disposed on bottom and sidewalls thereof conductive barrier metal layers (BLb, BLc, BLd). a dielectric structure; a ground plane conductor a strip conductor disposed over the dielectric structure and separated from the ground plane conductor by the dielectric structure, the dielectric structure having open ended trench therein; wherein the strip conductor is disposed in the trench; wherein the strip conductor comprises a plurality of stacked metal layers (M3a, M3b, M3c) disposed in the trench; and wherein such stacked metal layers have disposed on bottom and sidewalls thereof conductive barrier metal layers (BLb, BLc, BLd).
A cotton bud, characterised in that a shaft is made from rolled dissolvable paper and the buds at the ends comprise entangled dissolvable cotton wool type fibres.
System for accent lighting or for generating light effects, comprising, • a plurality of LED strands, each of which comprises at least one LED, • a plurality of control devices for the control and power supply of the LEDs, wherein at least one LED strand is respectively connected to each control device, • a plurality of voltage converters which are connected to a supply line, wherein each control device is associated with a voltage converter and the voltage converters are configured to supply the control devices with a voltage that is different than the voltage of the supply line, • a central control unit for controlling the control devices, wherein the control devices are connected to the central control unit via a data line, wherein the LED strands, the supply line and data line are arranged on or in an elongated profile and each control unit together with the respective voltage converter is respectively disposed in a box mounted on the profile, characterized in that the boxes with the control devices and the voltage converters are disposed laterally on the elongated profile. • a plurality of LED strands, each of which comprises at least one LED, • a plurality of control devices for the control and power supply of the LEDs, wherein at least one LED strand is respectively connected to each control device, • a plurality of voltage converters which are connected to a supply line, wherein each control device is associated with a voltage converter and the voltage converters are configured to supply the control devices with a voltage that is different than the voltage of the supply line, • a central control unit for controlling the control devices, wherein the control devices are connected to the central control unit via a data line,