mhurhangee/ep-ind-claims huggingface dataset:
A method for transmit power control by a user equipment, UE, comprising: transmitting a random access channel preamble to an evolved Node B, eNB; receiving a random access response from the eNB in response to the random access channel preamble successfully received by the eNB, the random access response comprising a transmit power control command indicating a relative power density spectrum change from transmit power used for a preceding successful transmission of the random access channel preamble; and setting transmit power control for a first message transmitted on a physical uplink shared channel based, at least in part, on the transmit power control command. transmitting a random access channel preamble to an evolved Node B, eNB; receiving a random access response from the eNB in response to the random access channel preamble successfully received by the eNB, the random access response comprising a transmit power control command indicating a relative power density spectrum change from transmit power used for a preceding successful transmission of the random access channel preamble; and setting transmit power control for a first message transmitted on a physical uplink shared channel based, at least in part, on the transmit power control command.
An intragastric balloon for the treatment of obesity, comprising: (a) a shell having a wall enclosing an inner volume, and; (b) a fluid fill valve secured in the shell wall, wherein a barrier layer of the shell wall is made of a 100% fluorinated silicone. (a) a shell having a wall enclosing an inner volume, and; (b) a fluid fill valve secured in the shell wall,
A lighting apparatus comprising: - a conversion material for converting blue primary light into secondary light, wherein the conversion material comprises converting photoluminescent material, which degrades to non-converting photoluminescent material over time when the conversion material is illuminated by the blue primary light, - a primary light source for emitting blue primary light for being directed to the conversion material for generating secondary light, wherein the conversion material is adapted such that, when the conversion material is illuminated by the blue primary light, the relative decrease in concentration of the converting photoluminescent material within the conversion material is larger than the relative decrease in intensity of the secondary light, wherein the conversion material is adapted such that, if the relative decrease in concentration of the converting photoluminescent material is equal to or smaller than 90 percent, the relative decrease in intensity of the secondary light is smaller than 10 percent, and wherein the converting photoluminescent material comprises an organic photoluminescent material and/or quantum dots. - a conversion material for converting blue primary light into secondary light, wherein the conversion material comprises converting photoluminescent material, which degrades to non-converting photoluminescent material over time when the conversion material is illuminated by the blue primary light, - a primary light source for emitting blue primary light for being directed to the conversion material for generating secondary light,
Method for dynamically coupling at least one mobile device to at least one output device, wherein the at least one mobile device is used to control a selection and output of data contents, and wherein the data contents are provided via a cellular communication network, wherein a coupling component is initiated by the at least one mobile device via the cellular communication network, wherein the at least one output device to be coupled is then determined by the coupling component on the basis of a stored user-specific environment pattern and coupling to the at least one mobile device is dynamically carried out (3, 4), wherein a current environment pattern is determined by the at least one mobile device for the purpose of initiating the coupling component and for the purpose of determining the at least one output device to be coupled, and wherein a proximity between the at least one mobile device and the at least one output device is estimated by a proximity determination unit of the coupling component on the basis of a comparison of parameters of the current environment pattern with parameters of the stored user-specific environment pattern by the coupling component, wherein field strengths of wireless communication networks and/or a transmitter identification of wireless LAN and/or Bluetooth and/or an audible and/or inaudible audio signal and/or optical environment parameters are used as parameters of the current environment pattern for estimating the proximity.
A plasticizer composition comprising an ester-based plasticizer and an ether compound, wherein the ether compound is one or more selected from the group consisting of: bis(2.-ethylhexyl)ether, butyl(2-ethylhexyl)ether and dibutyl ether, and wherein the ether compound is present in an amount of 0.01 to 20% by weight, based on the total weight of the plasticizer composition.
An internal combustion engine with a cylinder crankcase, an oil pan, which in operation is filled with oil up to an oil level, an oil pan upper part adapted to the turning circle of a crank mechanism with at least one passage opening, and an oil pan lower part of the oil pan and with at least one oil return line having an oil duct to return oil to the oil pan, wherein the oil duct has a collection point which, during operation of the internal combustion engine, receives an oil volume closing the free passage of the oil duct, wherein the collection point is arranged in such a way that the oil level in the oil pan lies below a collection level of the oil volume in the collection point in the direction of gravity, and the collection point has an oil collection container equipped with an oil outlet which determines the collection level, and wherein the oil duct has a section embodied as an immersion tube, wherein the oil duct is arranged concentrically to an oil collection container of the collection point (11, 24), characterized in that the collection point is arranged within the space limited by the oil pan and that a collection point equipped as an oil retaining beaker is provided in the oil duct below the oil pan upper part, into which collection point the immersion tube is immersed to below the collection level of the oil volume in the collection point.
A modified release composition for naproxen sodium comprising: an immediate release layer comprising naproxen sodium and an extended release layer comprising naproxen sodium, the IR and ER layers both comprising naproxen sodium, naproxen sodium being present in the IR layer in an amount about 40% by weight of the total amount of naproxen sodium in the whole composition, naproxen sodium being present in the ER layer in an amount about 60% by weight of the total amount of naproxen sodium in the whole composition, the ER layer further comprising a polymer adapted to extend the release of naproxen sodium, the polymer being present in an amount of about 30% by weight of the ER layer,,
A method of monitoring fetal health comprising: transmitting an ultrasound signal to create a measurement volume from an at least one transducer element in an array towards a maternal abdomen; receiving by the at least one transducer element an at least one ultrasound signal echo corresponding to at least one depth of the maternal abdomen; processing in an at least one channel the at least one signal echo received by the at least one transducer element to create at least one Doppler signal; characterized in that the method further comprises generating a multidimensional map from the processed Doppler signal; and providing a feedback to reposition the at least one transducer element when the fetal heart is determined, from the multidimensional map, to lie outside of substantial central alignment within the measurement volume. transmitting an ultrasound signal to create a measurement volume from an at least one transducer element in an array towards a maternal abdomen; receiving by the at least one transducer element an at least one ultrasound signal echo corresponding to at least one depth of the maternal abdomen; processing in an at least one channel the at least one signal echo received by the at least one transducer element to create at least one Doppler signal; characterized in that the method further comprises generating a multidimensional map from the processed Doppler signal; and providing a feedback to reposition the at least one transducer element when the fetal heart is determined, from the multidimensional map, to lie outside of substantial central alignment within the measurement volume.
A speech recognition method, comprising the steps of: providing a processor communicatively coupled to each of a local speech recognition engine and a server-based speech recognition engine; inputting a first speech input into the server-based speech recognition engine; receiving at the processor a first recognition result from the server-based speech recognition engine, the first recognition result being based on the first speech input; storing the first recognition result in a memory device, the first recognition result being stored in association with the first speech input; inputting a second speech input into the local speech recognition engine; retrieving the first recognition result from the memory device; and producing a second recognition result by the local speech recognition engine, the second recognition result being based on the second speech input and being dependent upon the retrieved first recognition result. providing a processor communicatively coupled to each of a local speech recognition engine and a server-based speech recognition engine; inputting a first speech input into the server-based speech recognition engine; receiving at the processor a first recognition result from the server-based speech recognition engine, the first recognition result being based on the first speech input; storing the first recognition result in a memory device, the first recognition result being stored in association with the first speech input; inputting a second speech input into the local speech recognition engine; retrieving the first recognition result from the memory device; and producing a second recognition result by the local speech recognition engine, the second recognition result being based on the second speech input and being dependent upon the retrieved first recognition result.
A flame-retardant engineering plastic, characterized in that the raw materials of the engineering plastic comprise the following components in parts by mass: 40-60 parts of PC, 20-40 parts of epoxy resin, 10-20 parts of ABS and 5-15 parts of a halogen-free flame retardant; the halogen-free flame retardant is: - a compound having the following structure: or wherein M is a cyclotriphosphazene group, or - a compound having a molecular structure as shown by Formula I: in Formula I, R 1 and R 2 are independently any inert nucleophilic group satisfying the chemical environment thereof; R 3 and R 4 are any organic group satisfying the chemical environment thereof; X 1 and X 2 are independently any one of -S-R 5 -S-, -NH-R 6 -NH-, -NH-R 7 -O-, -S-R 11 NH-, -O-R 12 -COO- or -S-R 13 -COO-; R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12 and R 13 are independently any organic group satisfying the chemical environment thereof; Y 1 and Y 2 are independently any nucleophilic group satisfying the chemical environment thereof; M is any one of cyclotriphosphazene groups M 1, a cyclic ring consisting of four or more phosphazene groups M 2, or non-cyclic polyphosphazene groups M 3, or a combination of at least two of them; each m and n is an integer greater than or equal to zero; each a, b, c and d is an integer greater than or equal to zero, and c and d are not zero simultaneously, and a+b+c+d+2 equals to two times of the number of phosphorus atoms in the M group. - a compound having the following structure: or wherein M is a cyclotriphosphazene group, or - a compound having a molecular structure as shown by Formula I: in Formula I, R 1 and R 2 are independently any inert nucleophilic group satisfying the chemical environment thereof; R 3 and R 4 are any organic group satisfying the chemical environment thereof; X 1 and X 2 are independently any one of -S-R 5 -S-, -NH-R 6 -NH-, -NH-R 7 -O-, -S-R 11 NH-, -O-R 12 -COO- or -S-R 13 -COO-; R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12 and R 13 are independently any organic group satisfying the chemical environment thereof; Y 1 and Y 2 are independently any nucleophilic group satisfying the chemical environment thereof; M is any one of cyclotriphosphazene groups M 1, a cyclic ring consisting of four or more phosphazene groups M 2, or non-cyclic polyphosphazene groups M 3, or a combination of at least two of them; each m and n is an integer greater than or equal to zero; each a, b, c and d is an integer greater than or equal to zero, and c and d are not zero simultaneously, and a+b+c+d+2 equals to two times of the number of phosphorus atoms in the M group.
A method of connecting a hardware module to a fieldbus, wherein a data connection between the hardware module and the fieldbus is established by a network module which is connected to the fieldbus and which has an internal memory, said method comprising the steps that the hardware module is coupled to the network module; communication software is read out of the memory of the network module by the hardware module and is provided for the communication of the hardware module with the fieldbus; the communication software is stored in the hardware module; and the hardware module uses the communication software to communicate over the fieldbus, wherein the read-out communication software is adapted to the fieldbus with which the network module establishes a data connection; and wherein communication software for at least two different fieldbus systems is stored in the memory of the network module. the hardware module is coupled to the network module; communication software is read out of the memory of the network module by the hardware module and is provided for the communication of the hardware module with the fieldbus; the communication software is stored in the hardware module; and the hardware module uses the communication software to communicate over the fieldbus, wherein the read-out communication software is adapted to the fieldbus with which the network module establishes a data connection; and wherein communication software for at least two different fieldbus systems is stored in the memory of the network module.
A forming device that forms a metal pipe by heating and expanding a metal pipe material, the device comprising: a pair of dies (11, 12) between which the metal pipe material is expanded; electrodes (17, 18) that oppose each other and that sandwich both end parts of the metal pipe material therebetween to heat the metal pipe material; a busbar which is a conductor that is connected only to one of the opposing electrodes to supply electric power from a power supply; and a driving mechanism that moves at least one of the pair of dies (11, 12), wherein the busbar which is a conductor is connected only to one of the electrodes on a side of one of the pair of dies (11, 12) of which an amount of movement by the driving mechanism is smaller than the other. a pair of dies (11, 12) between which the metal pipe material is expanded; electrodes (17, 18) that oppose each other and that sandwich both end parts of the metal pipe material therebetween to heat the metal pipe material; a busbar which is a conductor that is connected only to one of the opposing electrodes to supply electric power from a power supply; and a driving mechanism that moves at least one of the pair of dies (11, 12), wherein the busbar which is a conductor is connected only to one of the electrodes on a side of one of the pair of dies (11, 12) of which an amount of movement by the driving mechanism is smaller than the other.
A sample analyzer comprising: a sample preparing section configured to prepare a measurement sample by mixing a sample and a nucleic acid staining reagent; an optical detector configured to irradiate light on each of cells contained in the measurement sample, receive fluorescent light and scattered light given off by each of the irradiated cells, and output fluorescent light signal and scattered light signal; a signal processing section configured to obtain fluorescent light intensity and fluorescence pulse area of each of the cells from the fluorescent light signal output by the optical detector; an information processing section configured to detect white blood cells contained in the measurement sample based on the fluorescence pulse area value, which integrates the fluorescent light signal intensity by time, and a parameter of each of the cells obtained from the scattered light signal, to detect bacteria contained in the measurement sample based on the fluorescent light intensity and the parameter of each of the cells obtained from the scattered light signal, and to detect the white blood cells, atypical cells and epithelial cells contained in the measurement sample based on the fluorescence pulse area and the parameter of the scattered light signal; wherein the parameter is a forward scattered light pulse width, and the atypical cells have more nucleic acid than the white blood cells and the epithelial cells. a sample preparing section configured to prepare a measurement sample by mixing a sample and a nucleic acid staining reagent; an optical detector configured to irradiate light on each of cells contained in the measurement sample, receive fluorescent light and scattered light given off by each of the irradiated cells, and output fluorescent light signal and scattered light signal; a signal processing section configured to obtain fluorescent light intensity and fluorescence pulse area of each of the cells from the fluorescent light signal output by the optical detector; an information processing section configured to detect white blood cells contained in the measurement sample based on the fluorescence pulse area value, which integrates the fluorescent light signal intensity by time, and a parameter of each of the cells obtained from the scattered light signal, to detect bacteria contained in the measurement sample based on the fluorescent light intensity and the parameter of each of the cells obtained from the scattered light signal, and to detect the white blood cells, atypical cells and epithelial cells contained in the measurement sample based on the fluorescence pulse area and the parameter of the scattered light signal; wherein the parameter is a forward scattered light pulse width, and the atypical cells have more nucleic acid than the white blood cells and the epithelial cells.
A method for providing a frame structure for device-to-device network communication, with high and low priority data comprising: - configuring a control channel to communicate control data; - configuring a high priority data channel to communicate high priority data; and - configuring a low priority data channel to communicate low priority data; wherein the control channel comprises: - a high priority data channel control portion configured to communicate control data that is related to the high priority data channel, and - a low priority data channel control portion configured to communicate control data that is related to the low priority data channel; and wherein the frame structure is configured to communicate control data within the control channel over a first communication resource; wherein the frame structure is configured to communicate the high priority data within the high priority data channel over a second communication resource, and wherein the frame structure is configured to communicate the low priority data within the low priority data channel over a third communication resource; characterized in that the control channel, the high priority data channel, and the low priority data channel are configured to communicate a synchronization sequence, wherein the synchronization sequence comprises a primary synchronization sequence, PSS, or a secondary synchronization sequence, SSS, and an indication of the type of the synchronization source and its accuracy. - configuring a control channel to communicate control data; - configuring a high priority data channel to communicate high priority data; and - configuring a low priority data channel to communicate low priority data; - a high priority data channel control portion configured to communicate control data that is related to the high priority data channel, and - a low priority data channel control portion configured to communicate control data that is related to the low priority data channel; and
A robot in which a head is connected to a body through a joint to be driven by output from a motor (221, 222), the head being movable up and down or rotatable relative to the body by driving of the joint, the robot comprising a controller configured to execute: processing of causing the joint to be driven at a predetermined first cycle by the output from the motor (221, 222), to thereby cause the robot to perform a simulated breathing operation; processing of determining, through detection of an output value from an acceleration sensor or a gyro sensor that is included in the robot at a predetermined second cycle, whether the robot is in a state of falling or in a state of rotating at a speed equal to or higher than a predetermined speed; and processing of, when the motor (221, 222) is in an operable state, in a case where a determination is made that the robot is in the state of falling or in a case where a determination is made that the robot is in the state of rotating at the speed equal to or higher than the predetermined speed, transferring the motor (221, 222) to a free state and causing the simulated breathing operation to be stopped, to thereby transferring the robot to a simulated fainting state. processing of causing the joint to be driven at a predetermined first cycle by the output from the motor (221, 222), to thereby cause the robot to perform a simulated breathing operation; processing of determining, through detection of an output value from an acceleration sensor or a gyro sensor that is included in the robot at a predetermined second cycle, whether the robot is in a state of falling or in a state of rotating at a speed equal to or higher than a predetermined speed; and processing of, when the motor (221, 222) is in an operable state, in a case where a determination is made that the robot is in the state of falling or in a case where a determination is made that the robot is in the state of rotating at the speed equal to or higher than the predetermined speed, transferring the motor (221, 222) to a free state and causing the simulated breathing operation to be stopped, to thereby transferring the robot to a simulated fainting state.
A recombinant protein immobilised on a surface, the recombinant protein being capable of binding to complement factor H, and thereby inducing increased binding of C3d and C3b by bound complement factor H compared to unbound CFH, wherein the recombinant protein binds to CFH within complement control proteins (CCPs) 8-10 of CFH.