mhurhangee/ep-ind-claims huggingface dataset:
Compound VB of the formula or where R 1 and R 3 are each independently an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms, and R 2 is a hydrogen atom or an alkyl, cycloalkyl, aryl or arylalkyl group having 1 to 12 carbon atoms, or R 2 and R 1 together are a divalent hydrocarbon radical which is part of an optionally substituted carbocyclic ring having 5 to 8 and preferably 5 or 6 carbon atoms, and R 3 is an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms; or R 2 and R 3 together are a divalent hydrocarbon radical which is part of an optionally substituted carbocyclic ring having 5 to 8 and preferably 5 or 6 carbon atoms, and R 1 is an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms; R 4 and R 5 are each independently an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms; A is an (a+b)-valent radical of a polyamine-polyepoxide adduct after removal of (a+b) primary amino groups; a is an integer from 0 to 4; and b is an integer from 1 to 4; with the provisos that the sum of a and b is an integer from 1 to 4, and that the parent polyepoxide of the polyamine-polyepoxide adduct is a polyepoxide E, especially a diepoxide E1, and has an epoxy equivalent weight of 65 to 500 g/eq. R 1 and R 3 are each independently an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms, and R 2 is a hydrogen atom or an alkyl, cycloalkyl, aryl or arylalkyl group having 1 to 12 carbon atoms, or R 2 and R 1 together are a divalent hydrocarbon radical which is part of an optionally substituted carbocyclic ring having 5 to 8 and preferably 5 or 6 carbon atoms, and R 3 is an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms; or R 2 and R 3 together are a divalent hydrocarbon radical which is part of an optionally substituted carbocyclic ring having 5 to 8 and preferably 5 or 6 carbon atoms, and R 1 is an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms; R 4 and R 5 are each independently an alkyl, cycloalkyl, aryl or arylalkyl group which has 1 to 12 carbon atoms and optionally has ether groups or halogen atoms; A is an (a+b)-valent radical of a polyamine-polyepoxide adduct after removal of (a+b) primary amino groups; a is an integer from 0 to 4; and b is an integer from 1 to 4; with the provisos that the sum of a and b is an integer from 1 to 4, and that the parent polyepoxide of the polyamine-polyepoxide adduct is a polyepoxide E, especially a diepoxide E1, and has an epoxy equivalent weight of 65 to 500 g/eq.
Method for controlling an expansion valve of a refrigerant circuit comprising at least one evaporator, at least one internal heat exchanger, at least one compressor, at least one condenser, the expansion valve and a control device, connected to the expansion valve in a signal-conducting manner, for controlling the expansion valve, wherein a first fluid line of the at least one internal heat exchanger is arranged between the at least one condenser and the expansion valve and a second fluid line of the at least one internal heat exchanger is arranged between the at least one evaporator and the at least one compressor, wherein a refrigerant circulates in the refrigerant circuit, wherein the refrigerant flows, in a circulation direction of the refrigerant circuit starting from a valve outlet of the expansion valve, through the at least one evaporator, the second fluid line of the at least one internal heat exchanger, the at least one compressor, the at least one condenser, the first fluid line of the at least one internal heat exchanger and the expansion valve, wherein the refrigerant is at least partially evaporated in the at least one evaporator through the input of heat into the refrigerant by a heat source acting on the at least one evaporator, wherein the refrigerant flowing through the first fluid line releases heat to the refrigerant flowing through the second fluid line and the enthalpy of the refrigerant is thus increased before entry into the at least one compressor, characterized in that the expansion valve is controlled in dependence on a temperature difference between a heat source temperature of the heat source and the evaporation temperature of the refrigerant, which prevails in the region between valve outlet of the expansion valve and compressor inlet of the at least one compressor, wherein the heat source temperature of the heat source acting on the at least one evaporator and the evaporation temperature of the refrigerant are determined in the region between valve outlet and compressor inlet, wherein an actual heat source temperature difference is determined from the temperature difference between heat source temperature and evaporation temperature, wherein the actual heat source temperature difference is adjusted to a predefined or predefinable target heat source temperature difference by controlling an opening width of the expansion valve, wherein the target heat source temperature difference is continuously adjusted, wherein the control device comprises a further control mechanism for preventing the entry of liquid refrigerant into the at least one compressor, wherein, from at least one measured or determined temperature of the refrigerant in the refrigerant circuit and/or at least one measured or determined pressure of the refrigerant in the refrigerant circuit, a control actual value characterizing the superheated state of the refrigerant before or after the at least one compressor is determined and the control actual value is adjusted to a predefined or predefinable control target value by controlling the target heat source temperature difference.
A cartridge for an electronic vaping device, EVD, the cartridge comprising: a vaporizer assembly configured to form a raw vapor; and a flavor assembly removably coupled to the vaporizer assembly such that the flavor assembly is in flow communication with the vaporizer assembly, the flavor assembly enclosing a porous structure, the porous structure holding at least one flavorant, the flavor assembly being configured to form a flavored vapor based on elution of the at least one flavorant into the raw vapor, the elution being based on the raw vapor passing through the porous structure, wherein the flavor assembly includes a reservoir configured to hold the at least one flavorant, the reservoir comprising a tubular body having a hollow core extending longitudinally through the reservoir, wherein the porous structure includes a wicking material configured to draw the at least one flavorant from the reservoir, and wherein the porous structure extends transversely along an end of the reservoir so that the porous structure extends over one end of the hollow core. a vaporizer assembly configured to form a raw vapor; and a flavor assembly removably coupled to the vaporizer assembly such that the flavor assembly is in flow communication with the vaporizer assembly, the flavor assembly enclosing a porous structure, the porous structure holding at least one flavorant, the flavor assembly being configured to form a flavored vapor based on elution of the at least one flavorant into the raw vapor, the elution being based on the raw vapor passing through the porous structure, wherein the flavor assembly includes a reservoir configured to hold the at least one flavorant, the reservoir comprising a tubular body having a hollow core extending longitudinally through the reservoir, wherein the porous structure includes a wicking material configured to draw the at least one flavorant from the reservoir, and wherein the porous structure extends transversely along an end of the reservoir so that the porous structure extends over one end of the hollow core.
A method to diagnose a NOx sensor, comprising: raising a temperature of an SCR catalyst for a predetermined time period while dosing urea; maintaining the temperature of the SCR catalyst without dosing urea for a second predetermined time period; comparing data from a first NOx sensor upstream of the SCR catalyst and a second NOx sensor downstream of the SCR catalyst without dosing urea over a third predetermined time period; and providing a NOx sensor condition index for at least one of the first NOx sensor and the second NOx sensor in response to the comparing. raising a temperature of an SCR catalyst for a predetermined time period while dosing urea; maintaining the temperature of the SCR catalyst without dosing urea for a second predetermined time period; comparing data from a first NOx sensor upstream of the SCR catalyst and a second NOx sensor downstream of the SCR catalyst without dosing urea over a third predetermined time period; and providing a NOx sensor condition index for at least one of the first NOx sensor and the second NOx sensor in response to the comparing.
A method for managing uplink channel resources in a mobile communication terminal located in a first cell, comprising: measuring a first received signal power of a first downlink channel signal for a plurality of frequency bands, the first downlink channel signal transmitted from a base station of a second cell; measuring a second received signal power of a second downlink channel signal for the frequency bands, the second downlink channel signal transmitted from a base station in the first cell; and determining a transmission signal power of an uplink channel signal for the plurality of frequency bands based on the first and second received signal powers, wherein determining the transmission signal power comprises: arranging the plurality of frequency bands based on a ratio of the first received signal power to the second received signal power; and selecting the transmission signal power for each frequency band based on the arranged order. measuring a first received signal power of a first downlink channel signal for a plurality of frequency bands, the first downlink channel signal transmitted from a base station of a second cell; measuring a second received signal power of a second downlink channel signal for the frequency bands, the second downlink channel signal transmitted from a base station in the first cell; and determining a transmission signal power of an uplink channel signal for the plurality of frequency bands based on the first and second received signal powers, wherein determining the transmission signal power comprises: arranging the plurality of frequency bands based on a ratio of the first received signal power to the second received signal power; and selecting the transmission signal power for each frequency band based on the arranged order.
A method of analyzing an operating condition (74, 76) of liquid-filled electrical equipment monitored by a dissolved gas monitoring device comprising: receiving data elements collected at said monitoring device that characterize behaviour of said electrical equipment during operation of said electrical equipment over a period of time, said data elements being received at a processing system from said monitoring device; identifying a periodic characteristic (136, 138, 140) within said data elements responsive to said operation of said electrical equipment; distinguishing a gas generation rate trend from said periodic characteristic (136, 138, 140), by cancelling said periodic characteristic from said data elements over said period of time to reveal said trend; determining said condition (74, 76) of said electrical equipment in response to said trend; and presenting said condition (74, 76) to a user. receiving data elements collected at said monitoring device that characterize behaviour of said electrical equipment during operation of said electrical equipment over a period of time, said data elements being received at a processing system from said monitoring device; identifying a periodic characteristic (136, 138, 140) within said data elements responsive to said operation of said electrical equipment; distinguishing a gas generation rate trend from said periodic characteristic (136, 138, 140), by cancelling said periodic characteristic from said data elements over said period of time to reveal said trend; determining said condition (74, 76) of said electrical equipment in response to said trend; and presenting said condition (74, 76) to a user.
An adjustable phase-shifting device for an array antenna, the phase-shifting device adapted for feeding a signal between a common input port of the phase-shifting device and two or more output ports (8a, 8b, 8c, 8d, 8e) of the phase-shifting device; wherein the device comprises a conductor chamber, a branched feed network, at least one dielectric block (2a, 2b, 4, 52, 54, 56, 104, 114, 116), two dielectric substrates (7a, 7b) and a drawbar (6, 59, 81, 106); the input port and the output ports are arranged at a first edge of the conductor chamber, and the drawbar is arranged at a second edge of the conductor chamber, wherein the at least one dielectric block is fixed on the drawbar; the branched feed network has strip lines (3, 53, 101) integrated therein, and the branched feed network couples the input port and the output ports by one or more feed junctions, wherein the branched feed network comprises rectangular transformer portions with different widths for reducing reflection of a signal passing through the network; the branched feed network is fixed between the two dielectric substrates (7a, 7b); the conductor chamber comprises two wide walls respectively above the strip lines and below the strip lines and two narrow walls; wherein each dielectric block contains one or more transformer portions for reducing the reflection of the signal passing through the network; wherein each dielectric block is made as one piece and contains identical upper and lower portions which are arranged between the wide walls of the conductor chamber, and the upper and lower portions sandwich the strip lines of the branched feed network; wherein a longitudinal deep slot is located between the upper and lower portions of each dielectric block for accommodating the strip lines and wherein an inner surface of the longitudinal deep slot is provided with a chamfer for guiding the strip lines.
An ActRIIb-Fc fusion protein for use in treating a bone-related disorder or a muscle-related disorder in a patient, wherein the ActRIIb-Fc fusion protein is for administration to the patient on a dosing schedule that maintains a serum concentration of the ActRIIb-Fc fusion protein from 8-20 μg/mL.
A connector, comprising: a housing, the housing having a tab extending therefrom; a cover slideably coupled to the housing, the cover adapted to slide along the housing inwardly towards the housing and outwardly away from the housing; the cover having a front cover bump and a hard-stop, both the front cover bump and the hard-stop being located on a front surface of the cover; a latch slideably coupled to the cover, the latch comprising an upper recess and a lower recess, the latch adapted for sliding upwards and downwards over the front cover bump, whereby the hard-stop restricts downward movement of the latch, after the upper recess has slid downwards over, and aligns with, the front cover bump. a housing, the housing having a tab extending therefrom; a cover slideably coupled to the housing, the cover adapted to slide along the housing inwardly towards the housing and outwardly away from the housing; the cover having a front cover bump and a hard-stop, both the front cover bump and the hard-stop being located on a front surface of the cover; a latch slideably coupled to the cover, the latch comprising an upper recess and a lower recess, the latch adapted for sliding upwards and downwards over the front cover bump, whereby the hard-stop restricts downward movement of the latch, after the upper recess has slid downwards over, and aligns with, the front cover bump.
A method of generating motion vector predictor candidates for a block to decode forming a part of a current video frame that is to be decoded, wherein, if available, the number of temporal motion vector predictor candidates generated is not more than one and the number of spatial motion vector predictor candidates generated is at least one, the method comprising: generating the spatial motion vector predictor candidate by, if available, selecting as the spatial motion vector predictor candidate a motion vector associated with a block neighboring and diagonally above and to the right of the block to decode; and generating the one temporal motion vector predictor candidate by, if available, selecting as the one temporal motion vector predictor candidate a motion vector associated with a top left position in a block neighboring and diagonally below and to the right of an area of a reference frame, the reference frame being different from the current video frame and said area having the same position and the same size as the block to decode. generating the spatial motion vector predictor candidate by, if available, selecting as the spatial motion vector predictor candidate a motion vector associated with a block neighboring and diagonally above and to the right of the block to decode; and generating the one temporal motion vector predictor candidate by, if available, selecting as the one temporal motion vector predictor candidate a motion vector associated with a top left position in a block neighboring and diagonally below and to the right of an area of a reference frame, the reference frame being different from the current video frame and said area having the same position and the same size as the block to decode.
An improved manually operated coffee machine, comprising a cup body, a water-pressing base body, and a coffee brewing base body that are detachably connected together, wherein a water storage cavity in communication with the cup body is disposed in the water-pressing base body, the water-pressing base body comprises an inner housing, the water-pressing base body is provided with a lock sleeve, and a hand-pressing power rod that extends into the water storage cavity is disposed in the lock sleeve, characterized in that the water-pressing base body further comprises an outer housing sleeved over the inner housing, and that the lock sleeve inserts from the outer housing into the inner housing and locks the outer housing and the inner housing.
A clot retrieval device for removing occlusive clot from a blood vessel, the device comprising: an inner elongate body having a collapsed delivery configuration and an expanded deployed configuration; an outer elongate body at least partially overlying the inner elongate body; the outer elongate body being expandable relative to the inner elongate body to a radial extent which is greater than the radial extent of the inner body in the deployed configuration such that in the expanded configuration, the outer elongate body is radially spaced-apart from the inner elongate body to define therebetween an interior reception space; wherein the outer elongate body comprises a plurality of longitudinally spaced-apart outer clot engaging regions (9521, 9522, 9523), wherein at least two of said outer clot engaging regions are connected by members comprising hinge elements, and a plurality of clot-receiving openings are located between the outer clot engaging regions, the clot engaging regions being adapted, on engagement with clot, to urge clot towards at least one of the clot-receiving openings and into the reception space. an inner elongate body having a collapsed delivery configuration and an expanded deployed configuration; an outer elongate body at least partially overlying the inner elongate body; the outer elongate body being expandable relative to the inner elongate body to a radial extent which is greater than the radial extent of the inner body in the deployed configuration such that in the expanded configuration, the outer elongate body is radially spaced-apart from the inner elongate body to define therebetween an interior reception space; wherein the outer elongate body comprises a plurality of longitudinally spaced-apart outer clot engaging regions (9521, 9522, 9523), wherein at least two of said outer clot engaging regions are connected by members comprising hinge elements, and a plurality of clot-receiving openings are located between the outer clot engaging regions, the clot engaging regions being adapted, on engagement with clot, to urge clot towards at least one of the clot-receiving openings and into the reception space.
Load bearing interface ring for a space craft, the load bearing interface ring comprising a first part and a second part, the first part being arranged to carry compression loads and is attached on an inside surface of the second part, the second part being arranged to carry shear and global bending loads, characterized in that the second part of the load bearing interface ring comprises at least one segment of blocks, the blocks being cut from a composite material comprising fibres, the composite material comprising at least two pre-impregnated laminate plies, where at least one of the laminate plies are oriented in a normal plane of a jacket surface of the load bearing interface ring.
A method of calibrating a mass flow sensor (12, 112) while harvesting grain comprising: calculating an accumulated mass of a grain pile (154, 160) within a grain tank using a signal of a first sensor (13, 113, 126) that provides a signal related to the weight of a column of grain located above the first sensor (13, 113, 126); and calibrating the mass flow rate sensor (12, 112) based at least in part on the accumulated mass of the grain pile (154, 160), characterized in that, if according to a decision algorithm the change of mass of the column of grain in the grain tank sensed by the first sensor (13, 113, 126) will provide an accurate estimate of the change of mass of all of the grain within the grain tank and if it is additionally determined that the amount of pitch and/or roll of the grain tank during the period in which the grain in the grain tank was collected falls inside predetermined limits, the accumulated mass of the grain pile (154, 160) is determined, using a mathematical model of the general shape of the grain pile (154, 160), based on the sensed accumulated mass above the first sensor (13, 113, 126), and that the mathematical model of the geometric shape of the grain pile (154, 160) is revised to take into account the impact that pitch and/or roll has on the geometric shape of the grain pile (154, 160). calculating an accumulated mass of a grain pile (154, 160) within a grain tank using a signal of a first sensor (13, 113, 126) that provides a signal related to the weight of a column of grain located above the first sensor (13, 113, 126); and calibrating the mass flow rate sensor (12, 112) based at least in part on the accumulated mass of the grain pile (154, 160), characterized in that, if according to a decision algorithm the change of mass of the column of grain in the grain tank sensed by the first sensor (13, 113, 126) will provide an accurate estimate of the change of mass of all of the grain within the grain tank and if it is additionally determined that the amount of pitch and/or roll of the grain tank during the period in which the grain in the grain tank was collected falls inside predetermined limits, the accumulated mass of the grain pile (154, 160) is determined, using a mathematical model of the general shape of the grain pile (154, 160), based on the sensed accumulated mass above the first sensor (13, 113, 126), and that the mathematical model of the geometric shape of the grain pile (154, 160) is revised to take into account the impact that pitch and/or roll has on the geometric shape of the grain pile (154, 160).