mhurhangee/ep-ind-claims huggingface dataset:
A prosthetic heart valve, comprising: a stent body including a plurality of cells (212a-d) arranged in circumferential rows, the stent body extending from an inflow end to an outflow end in a longitudinal direction; a cuff attached to the stent body; characterized in that the valve further comprises: a plurality of leaflet attachment panels, each leaflet attachment panel being attached to the stent and spanning at least a portion of one of the cells; and a plurality of leaflets attached to the leaflet attachment panels; wherein the leaflet attachment panels are not integral with the stent body, wherein the leaflet attachment panels are not integral with the cuff, and wherein the leaflet attachment panels are not integral with the leaflets, wherein each of the leaflets has tabs, wherein each tab is attached to a respective leaflet attachment panel by suturing the tabs of the leaflets to the leaflet attachment panels. a stent body including a plurality of cells (212a-d) arranged in circumferential rows, the stent body extending from an inflow end to an outflow end in a longitudinal direction; a cuff attached to the stent body; characterized in that the valve further comprises: a plurality of leaflet attachment panels, each leaflet attachment panel being attached to the stent and spanning at least a portion of one of the cells; and a plurality of leaflets attached to the leaflet attachment panels; wherein the leaflet attachment panels are not integral with the stent body, wherein the leaflet attachment panels are not integral with the cuff, and wherein the leaflet attachment panels are not integral with the leaflets, wherein each of the leaflets has tabs, wherein each tab is attached to a respective leaflet attachment panel by suturing the tabs of the leaflets to the leaflet attachment panels. a plurality of leaflet attachment panels, each leaflet attachment panel being attached to the stent and spanning at least a portion of one of the cells; and a plurality of leaflets attached to the leaflet attachment panels; wherein the leaflet attachment panels are not integral with the stent body, wherein the leaflet attachment panels are not integral with the cuff, and wherein the leaflet attachment panels are not integral with the leaflets, wherein each of the leaflets has tabs, wherein each tab is attached to a respective leaflet attachment panel by suturing the tabs of the leaflets to the leaflet attachment panels.
An air conditioner, comprising: a wind direction changing flap configured to change, to the left or right, the direction of the wind from an outlet port of an indoor unit; and a controller configured to control a movement of the wind direction changing flap, wherein the controller is configured to return the wind direction changing flap to a reference position (P1; P41, P42) when the wind direction changing flap is to be moved within a swing range set at a part of a movable range in which the wind direction changing flap is able to move, characterized in that the reference position (P1; P41, P42) is set at a position corresponding to an end of the movable range, wherein the controller is configured to return the wind direction changing flap to the reference position (P1; P41, P42) when the swing range is set to a part of the movable range, and then start the reciprocation of the wind direction changing flap within the swing range. a wind direction changing flap configured to change, to the left or right, the direction of the wind from an outlet port of an indoor unit; and a controller configured to control a movement of the wind direction changing flap, wherein the controller is configured to return the wind direction changing flap to a reference position (P1; P41, P42) when the wind direction changing flap is to be moved within a swing range set at a part of a movable range in which the wind direction changing flap is able to move, characterized in that the reference position (P1; P41, P42) is set at a position corresponding to an end of the movable range, wherein the controller is configured to return the wind direction changing flap to the reference position (P1; P41, P42) when the swing range is set to a part of the movable range, and then start the reciprocation of the wind direction changing flap within the swing range.
Process to produce a monovinylaromatic polymer comprising post-consumer recycled polystyrene (PCR-PS) wherein the process comprises the steps of: a) providing the PCR-PS and monovinylaromatic monomer to at least one dissolver; b) mixing the PCR-PS and the monovinylaromatic monomer within the dissolver to dissolve the PCR-PS in the monovinylaromatic monomer so as to produce a polymerization mixture, wherein the polymerization mixture comprises insoluble material originated from the dissolved PCR-PS; c) filtering the polymerization mixture in a filtration system in order to obtain a stream of filtered polymerization mixture; d) ending the filtering of the polymerization mixture and recovering the filtered polymerization mixture; e) forming a reaction mixture from the filtered polymerization mixture recovered from step d), with the optional addition of a free radical initiator; f) subjecting the reaction mixture to a free-radical polymerization in one or more polymerization reactor (21a, 21b) in order to produce a monovinylaromatic polymer comprising PCR-PS; further wherein the step c) of filtering the polymerization mixture includes continuously redirecting at least a part of the stream of the filtered polymerization mixture exiting the filtration system back to the dissolver and mixing it with the polymerization mixture so as to continuously reduce the content of insoluble material in the polymerization mixture contained in the dissolver. a) providing the PCR-PS and monovinylaromatic monomer to at least one dissolver; b) mixing the PCR-PS and the monovinylaromatic monomer within the dissolver to dissolve the PCR-PS in the monovinylaromatic monomer so as to produce a polymerization mixture, wherein the polymerization mixture comprises insoluble material originated from the dissolved PCR-PS; c) filtering the polymerization mixture in a filtration system in order to obtain a stream of filtered polymerization mixture; d) ending the filtering of the polymerization mixture and recovering the filtered polymerization mixture; e) forming a reaction mixture from the filtered polymerization mixture recovered from step d), with the optional addition of a free radical initiator; f) subjecting the reaction mixture to a free-radical polymerization in one or more polymerization reactor (21a, 21b) in order to produce a monovinylaromatic polymer comprising PCR-PS;
A compound of formula wherein: X is N and Y is C; or X is C and Y is N; W is selected from 2-pyridinyl, 3-pyridinyl, 2-pyrimidinyl and phenyl; R 1 is selected from -S n R 7; wherein R 7 is C 1-3 alkyl and n is 2; R 2 is C 1-6 alkyl, optionally substituted with one or two groups independently selected from cyclopropyl, -CF 3 and -CN; R 3 is selected from R 4 and R 5 are independently selected from C 1-3 alkyl, cyclopropyl and methoxy; R 6 is selected from H and -NH 2; and the pharmaceutically acceptable salts thereof. X is N and Y is C; or X is C and Y is N; W is selected from 2-pyridinyl, 3-pyridinyl, 2-pyrimidinyl and phenyl; R 1 is selected from -S n R 7; wherein R 7 is C 1-3 alkyl and n is 2; R 2 is C 1-6 alkyl, optionally substituted with one or two groups independently selected from cyclopropyl, -CF 3 and -CN; R 3 is selected from R 4 and R 5 are independently selected from C 1-3 alkyl, cyclopropyl and methoxy; R 6 is selected from H and -NH 2;
A method for producing a polarizer including a polyvinyl alcohol-based resin layer having a layer thickness of 0.6 μm to 5 μm, and containing iodine, the method comprising the steps of: stretching a polyvinyl alcohol-based resin layer to obtain a stretched layer; immersing the stretched layer in a dyeing liquid containing iodine to obtain a dyed layer in which absorbance thereof determined from a tristimulus value Y is from 0.4 to 1.0 (transmittance T = 40% to 10%); and removing a part of iodine adsorbed in the dyed layer so that the absorbance of the dyed layer decreases by 0.03 to 0.7, provided that the absorbance of the dyed layer is controlled so that it does not become less than 0.3. stretching a polyvinyl alcohol-based resin layer to obtain a stretched layer; immersing the stretched layer in a dyeing liquid containing iodine to obtain a dyed layer in which absorbance thereof determined from a tristimulus value Y is from 0.4 to 1.0 (transmittance T = 40% to 10%); and removing a part of iodine adsorbed in the dyed layer so that the absorbance of the dyed layer decreases by 0.03 to 0.7, provided that the absorbance of the dyed layer is controlled so that it does not become less than 0.3.
A method for the treatment of milk for the production of cheesemaking milk having a reduced content of germs and bacteria, wherein the supplied milk is subjected to at least a first microfiltration (MF-I), which results in a separation into at least a first retentate (R-I) containing germs and bacteria and into at least a first permeate (P-I) having a reduced content of germs and bacteria, wherein the at least first retentate (R-I) is subjected to a bacterial content controlling treatment, wherein this is a thermal treatment by heating the milk to above 100°C, and wherein a mixture of the at least first retentate (R-I) with the at least first permeate (P-I) or the last permeate resulting from the last microfiltration follows the bacterial content controlling treatment of the at least first retentate (R-I), characterized in that • the supplied milk is subdivided into a first milk portion and a second milk portion, • the first milk portion is subjected to at least the first microfiltration (MF-I), • the second milk portion having the at least first retentate (R-I) from the at least first microfiltration (MF-I) is subjected to the joint bacterial content controlling treatment, • the mixture treated this way and consisting of first components, which consist of a non-filtered treated second milk portion (M2*) and a treated at least first retentate (R-I*), is combined with the at least first permeate (P-I) or the last permeate resulting from the last microfiltration, in order to thus obtain standardized cheesemaking milk, and • the division ratio between the first milk portion and the second milk portion is variable and is predefined by the intended purpose of the cheesemaking milk. • the supplied milk is subdivided into a first milk portion and a second milk portion, • the first milk portion is subjected to at least the first microfiltration (MF-I), • the second milk portion having the at least first retentate (R-I) from the at least first microfiltration (MF-I) is subjected to the joint bacterial content controlling treatment, • the mixture treated this way and consisting of first components, which consist of a non-filtered treated second milk portion (M2*) and a treated at least first retentate (R-I*), is combined with the at least first permeate (P-I) or the last permeate resulting from the last microfiltration, in order to thus obtain standardized cheesemaking milk, and • the division ratio between the first milk portion and the second milk portion is variable and is predefined by the intended purpose of the cheesemaking milk.
A method of a first access point arranged to provide wireless communication access for a wireless communication system, the method comprising determining that a first station is to transmit uplink data in an uplink transmission at a first frequency band in an unlicensed spectrum; assigning a second access point for receiving the uplink transmission, wherein the second access point is covering at least an overlapping area with a coverage area of the first access point; determining a second station targeted for downlink transmission, wherein the downlink transmission is scheduled for at least partly simultaneous transmission with the uplink transmission from the first station and at least partly overlapping the first frequency band, wherein a selection of the second station targeted for downlink transmission is based on a spatial relationship between the first and second stations; assigning antenna weights for an array antenna of the first access point to provide beamforming transmission of the downlink transmission towards the second station and a null towards the second access point; and transmitting the downlink transmission using the antenna weights. determining that a first station is to transmit uplink data in an uplink transmission at a first frequency band in an unlicensed spectrum; assigning a second access point for receiving the uplink transmission, wherein the second access point is covering at least an overlapping area with a coverage area of the first access point; determining a second station targeted for downlink transmission, wherein the downlink transmission is scheduled for at least partly simultaneous transmission with the uplink transmission from the first station and at least partly overlapping the first frequency band, wherein a selection of the second station targeted for downlink transmission is based on a spatial relationship between the first and second stations; assigning antenna weights for an array antenna of the first access point to provide beamforming transmission of the downlink transmission towards the second station and a null towards the second access point; and transmitting the downlink transmission using the antenna weights.
A wireless communications device (104, 450) comprising: a battery configured to provide power to operate the wireless communications device (104, 450) in an active mode of operation; a processing section coupled to the battery and configured to operate on battery power in the active mode of operation; and a radio frequency interface configured to receive a radio frequency signal and generate operating power for the wireless communications device (104, 450) from the radio frequency signal in a sleep mode of operation; wherein the wireless communications device (104, 450) is configured to detect available radio frequency power and enter the sleep mode of operation from the active mode of operation, characterized in that the wireless communications device (104, 450) is configured to detect a fill state of a memory device and, based on the fill state, change the processing section from the sleep mode to the active mode and conduct data transfer with the memory device. a battery configured to provide power to operate the wireless communications device (104, 450) in an active mode of operation; a processing section coupled to the battery and configured to operate on battery power in the active mode of operation; and a radio frequency interface configured to receive a radio frequency signal and generate operating power for the wireless communications device (104, 450) from the radio frequency signal in a sleep mode of operation; wherein the wireless communications device (104, 450) is configured to detect available radio frequency power and enter the sleep mode of operation from the active mode of operation, characterized in that the wireless communications device (104, 450) is configured to detect a fill state of a memory device and, based on the fill state, change the processing section from the sleep mode to the active mode and conduct data transfer with the memory device.
A cemented carbide, comprising a hard phase including WC, a binder phase including Co and Ni and a gamma phase, the cemented carbide consisting of 50 to 70 6a wt% WC; 5-13 wt.% Co; 1-9 wt.% Ni; 10-14 wt.% TiC; 8-12 wt.% NbC; 0.5-2.5 wt.% TaC; 0.1-1.0 wt.% Cr 3 C 2; 0.1-1.0 wt.% Mo 2 C; and 1-7 TiCN wt.% and/or 1-5 wt.% TiN, wherein an average grain size of the WC is in a range of 0.8 to 2 μm, 0.8 to 1.8 μm or 0.8 to 1.4 μm measured by a linear-intercept technique according to ISO 4499-2:2008 as described in the description; and a quotient of the average grain size of the WC/an average grain size of the gamma phase is in a range of 0.5 to 1.5. the cemented carbide consisting of 50 to 70 6a wt% WC; 5-13 wt.% Co; 1-9 wt.% Ni; 10-14 wt.% TiC; 8-12 wt.% NbC; 0.5-2.5 wt.% TaC; 0.1-1.0 wt.% Cr 3 C 2; 0.1-1.0 wt.% Mo 2 C; and 1-7 TiCN wt.% and/or 1-5 wt.% TiN, wherein an average grain size of the WC is in a range of 0.8 to 2 μm, 0.8 to 1.8 μm or 0.8 to 1.4 μm measured by a linear-intercept technique according to ISO 4499-2:2008 as described in the description; and a quotient of the average grain size of the WC/an average grain size of the gamma phase is in a range of 0.5 to 1.5.
A pneumatic tire with a noise damper comprising: a pneumatic tire having a tread portion; a circumferentially extending sponge-like noise damper being fixed to a surface on a side of a tire cavity of the tread portion; the noise damper being provided with a plurality of slits on an exposed surface facing the tire cavity; and the slits extending from and being in communication with axially both ends of the noise damper; characterized in that the slits comprise a first slit and a second slit extending in a direction intersecting with the direction of the first slit. a pneumatic tire having a tread portion; a circumferentially extending sponge-like noise damper being fixed to a surface on a side of a tire cavity of the tread portion; the noise damper being provided with a plurality of slits on an exposed surface facing the tire cavity; and the slits extending from and being in communication with axially both ends of the noise damper; characterized in that the slits comprise a first slit and a second slit extending in a direction intersecting with the direction of the first slit.
A diamond layer of single crystal CVD diamond which is coloured with a dominant brown component and which has a thickness greater than 1 mm, wherein the hue angle is less than 80 degrees.
A non-aqueous electrolyte solution for a lithium secondary battery, comprising an electrolyte salt and an organic solvent, wherein the non-aqueous electrolyte solution further comprises a pyrimidine-based compound of the following formula, the organic solvent comprises a non-fluorinated solvent and a fluorinated solvent, and the amount of fluorine present in the organic solvent is in the range of 0.1 to 50 wt%, wherein the fluorinated solvent comprisesa fluorine-containing cyclic carbonate solvent,, wherein the fluorine-containing cyclic carbonate solvent is selected from the group consisting of fluoroethylene carbonate, difluoroethylene carbonate, trifluoroethylene carbonate, tetrafluoroethylene carbonate, 3,3,3-trifluoropropylene carbonate, 1-fluoropropylene carbonate and a mixture thereof, wherein, R 1 to R 4 are each independently hydrogen: unsubstituted alkyl group having 1 to 10 carbon atoms;; or an unsubstituted alkoxy group having 1 to 10 carbon atoms.
A multi-function rig for performing rig operations on a plurality of spaced-apart wellbore locations at a single wellbore location site, said multi-function rig configured to be movable between multiple wellbore location sites, the multi-function rig comprising: a rig structure configured to be positioned adjacent said plurality of spaced-apart wellbore locations at said single wellbore location site; a plurality of machines operatively coupled to said rig structure and configured to perform at least one of said rig operations on each of said plurality of spaced-apart wellbore locations, wherein each of said plurality of machines is configured to be supported by pressure control equipment associated with at least one of said plurality of spaced-apart wellbore locations, and wherein at least one of said plurality of machines is configured to be movable relative to said rig structure to positions proximate at least one of said plurality of spaced-apart wellbore locations without moving said multi-function rig from said single wellbore location site; and at least one of said plurality of machines being configured as a drilling machine (DM1, DM2) to perform a drilling operation, and configured to be movable relative to said rig structure to positions proximate at least one of said plurality of spaced-apart wellbore locations. a rig structure configured to be positioned adjacent said plurality of spaced-apart wellbore locations at said single wellbore location site; a plurality of machines operatively coupled to said rig structure and configured to perform at least one of said rig operations on each of said plurality of spaced-apart wellbore locations, wherein each of said plurality of machines is configured to be supported by pressure control equipment associated with at least one of said plurality of spaced-apart wellbore locations, and wherein at least one of said plurality of machines is configured to be movable relative to said rig structure to positions proximate at least one of said plurality of spaced-apart wellbore locations without moving said multi-function rig from said single wellbore location site; and at least one of said plurality of machines being configured as a drilling machine (DM1, DM2) to perform a drilling operation, and configured to be movable relative to said rig structure to positions proximate at least one of said plurality of spaced-apart wellbore locations.
A nozzle for delivering a drug to an upper olfactory region of a user, comprising a drug product inlet configured to receive a mixture of drug and gas propellant or a mixture of liquid propellant and drug, the drug product inlet being disposed at a proximal end of the nozzle, and a nozzle body defining a longitudinal axis; characterized in that the nozzle body defines five to seven channels having a proximal end and a distal end, which channels are disposed parallel to the longitudinal axis, the proximal end of each channel being in fluid communication with the inlet and an outlet orifice is disposed at the distal end of each channel such that a mixture of drug and propellant received into the inlet passes through the channels and exits the nozzle through the outlet orifices as a parallel multi-stream plume.