mhurhangee/ep-ind-claims huggingface dataset:
A scanning apparatus for predictive shimming, comprising: a scanning platform; a first scanner to form first scan-data for predictive shimming, the first scanner being coupled to the scanning platform; and a second scanner to form second scan-data for predictive shimming, the second scanner being coupled to the scanning platform, wherein the scanning platform is configured to: move the first scanner and the second scanner together along an X-axis and a Z-axis; and move the first scanner and the second scanner independent of and relative to each other along a Y-axis. a scanning platform; a first scanner to form first scan-data for predictive shimming, the first scanner being coupled to the scanning platform; and a second scanner to form second scan-data for predictive shimming, the second scanner being coupled to the scanning platform, wherein the scanning platform is configured to: move the first scanner and the second scanner together along an X-axis and a Z-axis; and move the first scanner and the second scanner independent of and relative to each other along a Y-axis. move the first scanner and the second scanner together along an X-axis and a Z-axis; and move the first scanner and the second scanner independent of and relative to each other along a Y-axis.
A valve opening circuit mounted on a heat pump device including a valve on a refrigerant circuit, the valve opening circuit comprising: a DC electric path to which a DC voltage generated from an AC voltage for normal use is applied; a valve drive circuit that opens and closes the valve by using the DC voltage of the DC electric path; a control unit that acquires a control power source voltage based on the DC voltage of the DC electric path and controls the valve drive circuit; and a power feed port connected to the DC electric path and connectable to a DC power source line provided from outside for emergency, wherein the control unit causes the valve drive circuit to open the valve when the AC voltage is lost and the DC voltage is fed from the DC power source line to the power feed port. a DC electric path to which a DC voltage generated from an AC voltage for normal use is applied; a valve drive circuit that opens and closes the valve by using the DC voltage of the DC electric path; a control unit that acquires a control power source voltage based on the DC voltage of the DC electric path and controls the valve drive circuit; and a power feed port connected to the DC electric path and connectable to a DC power source line provided from outside for emergency, wherein the control unit causes the valve drive circuit to open the valve when the AC voltage is lost and the DC voltage is fed from the DC power source line to the power feed port.
A Digital Subscriber Line, DSL, access apparatus, comprising a master block and a slave block, the master block cascaded with the slave block, characterized in comprising: the slave block, configured to capture an IGMP message, determine that the IGMP message is a report message, wherein the report message comprises a parameter indicating which multicast group to be joined; if determine that the number of multicast members of the slave block in the multicast group is zero, send a report message to the master block cascaded with the slave block and forward multicast data from the master block to a user interface corresponding to the multicast member according to a multicast forwarding table. the slave block, configured to capture an IGMP message, determine that the IGMP message is a report message, wherein the report message comprises a parameter indicating which multicast group to be joined; if determine that the number of multicast members of the slave block in the multicast group is zero, send a report message to the master block cascaded with the slave block and forward multicast data from the master block to a user interface corresponding to the multicast member according to a multicast forwarding table.
A method for preparing an inhibited starch, wherein it comprises the steps of a) providing a slurry containing a granular starch obtained from a starch containing raw material, b) alkalizing the slurry by adding ammonia or by adding one or more compounds having the ability to release or produce ammonia in the slurry, c) adjusting the pH of the slurry to a value above 10.0, preferably up to 12.0, and d) adding at least one oxidant being a source of active chlorine to the slurry for a reaction with said ammonia, or wherein step c) is replaced with the step of adjusting the pH of the slurry to a value of between 7.0 and 10.0, and wherein step d) is followed by a step of adjusting the pH of the slurry to a value above 10.0, preferably up to 12.0. a) providing a slurry containing a granular starch obtained from a starch containing raw material, b) alkalizing the slurry by adding ammonia or by adding one or more compounds having the ability to release or produce ammonia in the slurry, c) adjusting the pH of the slurry to a value above 10.0, preferably up to 12.0, and d) adding at least one oxidant being a source of active chlorine to the slurry for a reaction with said ammonia,
A method of creating a soft and lofty continuous fiber nonwoven web, the method comprising: providing a first molten polymer and a second molten polymer to a spinneret defining a plurality of orifices, wherein the first molten polymer has a first melting temperature, wherein the second molten polymer has a second melting temperature, and wherein the first melting temperature is in the range of 10 degrees to 180 degrees different than the second melting temperature; flowing a fluid intermediate the spinneret and a moving porous member, wherein the moving porous member is positioned below the spinneret; using the fluid to draw or push the first and second molten polymer components, in a direction that is toward the moving porous member, through at least some of the plurality of orifices to form a plurality of individual continuous fiber strands (126, 132); depositing the continuous fiber strands onto the moving porous member at a first location to produce an intermediate continuous fiber nonwoven web; intermittently varying a vacuum force applied to the moving porous member and to the intermediate continuous fiber nonwoven web downstream of the first location and without the addition of more continuous fibers and without any heat applied; and through-fluid bonding the intermediate continuous fiber nonwoven web after the intermittently varying the vacuum force step to produce a continuous fiber nonwoven web. providing a first molten polymer and a second molten polymer to a spinneret defining a plurality of orifices, wherein the first molten polymer has a first melting temperature, wherein the second molten polymer has a second melting temperature, and wherein the first melting temperature is in the range of 10 degrees to 180 degrees different than the second melting temperature; flowing a fluid intermediate the spinneret and a moving porous member, wherein the moving porous member is positioned below the spinneret; using the fluid to draw or push the first and second molten polymer components, in a direction that is toward the moving porous member, through at least some of the plurality of orifices to form a plurality of individual continuous fiber strands (126, 132); depositing the continuous fiber strands onto the moving porous member at a first location to produce an intermediate continuous fiber nonwoven web; intermittently varying a vacuum force applied to the moving porous member and to the intermediate continuous fiber nonwoven web downstream of the first location and without the addition of more continuous fibers and without any heat applied; and through-fluid bonding the intermediate continuous fiber nonwoven web after the intermittently varying the vacuum force step to produce a continuous fiber nonwoven web.
A compound of formula Ia: wherein: n is 1 or 2; R N is H or Me; R 1 is optionally one or more halo or methyl groups; R 2a and R 2b are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 2c and R 2d (if present) are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 3a and R 3b are independently selected from H and Me; R 4a is OH; R 4b is either H or Me; X is either N or CH; R 7 is selected from H and C 1-4 alkyl; (a) one of R 8a, R 8b, R 8c and R 8d is selected from H, halo, C 1-4 alkyl, C 1-4 alkoxy, NHC 1-4 alkyl; (b) another of R 8a, R 8b, R 8c and R 8d is selected from H, C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl, C 5-6 heteroaryl, C 5-6 heteroaryl methyl, C 4-6 heterocyclyl, C 4-6 heterocyclyl methyl, phenyl, benzyl, halo, amido, amidomethyl, acylamido, acylamidomethyl, C 1-4 alkyl ester, C 1-4 alkyl ester methyl, C 1-4 alkyl carbamoyl, C 1-4 alkyl carbamoyl methyl, C 1-4 alkylacyl, C 1-4 alkylacyl methyl, phenylcarbonyl, carboxy, carboxymethyl, ether, amino, amino methyl, sulfonamido, sulfonamino, sulfone, sulfoxide, nitrile and nitrilemethyl; (c) the others of R 8a, R 8b, R 8c and R 8d are H. n is 1 or 2; R N is H or Me; R 1 is optionally one or more halo or methyl groups; R 2a and R 2b are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 2c and R 2d (if present) are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 3a and R 3b are independently selected from H and Me; R 4a is OH; R 4b is either H or Me; X is either N or CH; R 7 is selected from H and C 1-4 alkyl; (a) one of R 8a, R 8b, R 8c and R 8d is selected from H, halo, C 1-4 alkyl, C 1-4 alkoxy, NHC 1-4 alkyl; (b) another of R 8a, R 8b, R 8c and R 8d is selected from H, C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl, C 5-6 heteroaryl, C 5-6 heteroaryl methyl, C 4-6 heterocyclyl, C 4-6 heterocyclyl methyl, phenyl, benzyl, halo, amido, amidomethyl, acylamido, acylamidomethyl, C 1-4 alkyl ester, C 1-4 alkyl ester methyl, C 1-4 alkyl carbamoyl, C 1-4 alkyl carbamoyl methyl, C 1-4 alkylacyl, C 1-4 alkylacyl methyl, phenylcarbonyl, carboxy, carboxymethyl, ether, amino, amino methyl, sulfonamido, sulfonamino, sulfone, sulfoxide, nitrile and nitrilemethyl; (c) the others of R 8a, R 8b, R 8c and R 8d are H. (a) one of R 8a, R 8b, R 8c and R 8d is selected from H, halo, C 1-4 alkyl, C 1-4 alkoxy, NHC 1-4 alkyl; (b) another of R 8a, R 8b, R 8c and R 8d is selected from H, C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl, C 5-6 heteroaryl, C 5-6 heteroaryl methyl, C 4-6 heterocyclyl, C 4-6 heterocyclyl methyl, phenyl, benzyl, halo, amido, amidomethyl, acylamido, acylamidomethyl, C 1-4 alkyl ester, C 1-4 alkyl ester methyl, C 1-4 alkyl carbamoyl, C 1-4 alkyl carbamoyl methyl, C 1-4 alkylacyl, C 1-4 alkylacyl methyl, phenylcarbonyl, carboxy, carboxymethyl, ether, amino, amino methyl, sulfonamido, sulfonamino, sulfone, sulfoxide, nitrile and nitrilemethyl; (c) the others of R 8a, R 8b, R 8c and R 8d are H.
Ranolazine for use in a method for treating or preventing atrial fibrillation or atrial flutter in a human patient in need thereof, the method comprising administering to the patient a therapeutically effective amount of dronedarone or a pharmaceutically acceptable salt thereof and a therapeutically effective amount of ranolazine.
A method for extending an operating range of a compressor system comprising: detecting one of a surge event and a surge event precursor; restricting flow into a condenser in response to detecting one of a surge event and a surge event precursor, wherein restricting flow into the condenser comprises restricting an actively controlled valve until the one of the surge event and the surge event precursor ceases; monitoring a compressor output and decreasing a restriction on the actively controlled valve in response to detecting a lack of surge event and the surge event precursor; and adjusting a state of the actively controlled valve according to a feedback loop such that the restricted state of the actively controlled valve maintains a compressor operating point immediately below a surge line. detecting one of a surge event and a surge event precursor; restricting flow into a condenser in response to detecting one of a surge event and a surge event precursor, wherein restricting flow into the condenser comprises restricting an actively controlled valve until the one of the surge event and the surge event precursor ceases; monitoring a compressor output and decreasing a restriction on the actively controlled valve in response to detecting a lack of surge event and the surge event precursor; and adjusting a state of the actively controlled valve according to a feedback loop such that the restricted state of the actively controlled valve maintains a compressor operating point immediately below a surge line.
A terminal antenna, wherein the terminal antenna is suitable for being disposed in an electronic device, and the terminal antenna comprises: a first radiator, a feed point, and a ground point; one end of the first radiator is grounded by using the ground point, and the other end of the first radiator is provided with the feed point; and the first radiator is further provided with a slot that penetrates the first radiator, the slot is of an interdigital structure, and there are at least two slots, wherein the first radiator comprises a plurality of elongated portions connected in series and separated from each other by the at least two slots forming interdigital capacitors between the elongated portions, wherein an operating frequency band of the terminal antenna comprises at least a first frequency band and a second frequency band, the terminal antenna is configured to cover the first frequency band by using a resonance corresponding to a zero-order mode, the resonance corresponding to the zero-order mode is configured to be generated by the slot of the interdigital structure, the terminal antenna is configured to cover the second frequency band by using a resonance corresponding to a Loop mode, and the first frequency band is different from the second frequency band, wherein the slot is filled with a dielectric, the resonance corresponding to the zero-order mode is dependent on the dielectric constant of the dielectric filling the slot, so that the resonance corresponding to the zero-order mode is able to cover a corresponding frequency band. one end of the first radiator is grounded by using the ground point, and the other end of the first radiator is provided with the feed point; and the first radiator is further provided with a slot that penetrates the first radiator, the slot is of an interdigital structure, and there are at least two slots, wherein the first radiator comprises a plurality of elongated portions connected in series and separated from each other by the at least two slots forming interdigital capacitors between the elongated portions, wherein an operating frequency band of the terminal antenna comprises at least a first frequency band and a second frequency band, the terminal antenna is configured to cover the first frequency band by using a resonance corresponding to a zero-order mode, the resonance corresponding to the zero-order mode is configured to be generated by the slot of the interdigital structure, the terminal antenna is configured to cover the second frequency band by using a resonance corresponding to a Loop mode, and the first frequency band is different from the second frequency band, wherein the slot is filled with a dielectric, the resonance corresponding to the zero-order mode is dependent on the dielectric constant of the dielectric filling the slot, so that the resonance corresponding to the zero-order mode is able to cover a corresponding frequency band.
An acetylene fluid supply package, comprising a pressure vessel; a porous filler in the pressure vessel; a solvent within the porous filler, said solvent solubilizing with acetylene absorbed within the solvent; said solvent comprising all of the following attributes: (i) a vapor pressure at 20 deg of approximately 800 kPa (6 torr) or less; (ii) a Hansen solubility factor (dH) greater than about 5 MPa 0.5; and (iii) a chemical structure comprising O, N or F atoms, wherein at least one of said O, N or F atoms is not bonded to a hydrogen atom, and further wherein said chemical structure is characterized by an absence of phosphorus boron, calcium and nickel; wherein the solvent is mesityl oxide, said mesityl oxide loaded into the pressure vessel in an amount no greater than about 0.54 kg of mesityl oxide per liter of volume of the pressure vessel. a pressure vessel; a porous filler in the pressure vessel; a solvent within the porous filler, said solvent solubilizing with acetylene absorbed within the solvent; said solvent comprising all of the following attributes: (i) a vapor pressure at 20 deg of approximately 800 kPa (6 torr) or less; (ii) a Hansen solubility factor (dH) greater than about 5 MPa 0.5; and (iii) a chemical structure comprising O, N or F atoms, wherein at least one of said O, N or F atoms is not bonded to a hydrogen atom, and further wherein said chemical structure is characterized by an absence of phosphorus boron, calcium and nickel; (i) a vapor pressure at 20 deg of approximately 800 kPa (6 torr) or less; (ii) a Hansen solubility factor (dH) greater than about 5 MPa 0.5; and (iii) a chemical structure comprising O, N or F atoms, wherein at least one of said O, N or F atoms is not bonded to a hydrogen atom, and further wherein said chemical structure is characterized by an absence of phosphorus boron, calcium and nickel; wherein the solvent is mesityl oxide, said mesityl oxide loaded into the pressure vessel in an amount no greater than about 0.54 kg of mesityl oxide per liter of volume of the pressure vessel.
A composition comprising the following: A) an anhydride and/or carboxylic acid functionalized ethylene/alpha-olefin interpolymer having the following properties: i) a melt viscosity (177°C) less than, or equal to, 50,000 mPa·s (50,000 cP), measured in accordance with ASTM D 3236 (177°C (350 °F)), ii) MWD from 1.5 to 5, measured as described in the description, and iii) a density from 0.855 to 0.900 g/cc; B) a tackifier; C) a wax; and further comprising D) an ethylene/alpha-olefin interpolymer; wherein the ethylene/alpha-olefin interpolymer of component D has at least one of the following properties: i) a melt viscosity (177°C) less than 50,000 mPa·s (50,000 cP), measured in accordance with ASTM D 3236 (177°C (350 °F)). ii) MWD from 1.2 to 3, measured as described in the description, and iii) a density from 0.855 to 0.900 g/cc; wherein the weight ratio of component A to component D (A/D) is equal to 3. A) an anhydride and/or carboxylic acid functionalized ethylene/alpha-olefin interpolymer having the following properties: i) a melt viscosity (177°C) less than, or equal to, 50,000 mPa·s (50,000 cP), measured in accordance with ASTM D 3236 (177°C (350 °F)), ii) MWD from 1.5 to 5, measured as described in the description, and iii) a density from 0.855 to 0.900 g/cc; i) a melt viscosity (177°C) less than, or equal to, 50,000 mPa·s (50,000 cP), measured in accordance with ASTM D 3236 (177°C (350 °F)), ii) MWD from 1.5 to 5, measured as described in the description, and iii) a density from 0.855 to 0.900 g/cc; B) a tackifier; C) a wax; and i) a melt viscosity (177°C) less than 50,000 mPa·s (50,000 cP), measured in accordance with ASTM D 3236 (177°C (350 °F)). ii) MWD from 1.2 to 3, measured as described in the description, and iii) a density from 0.855 to 0.900 g/cc;
Apparatus for adjusting the axial position of a valve pin in an injection molding system, the apparatus comprising: an actuator comprising a housing having a chamber enclosing a drive member that is fixedly interconnectable to the valve pin, the drive member driving the valve pin reciprocally upstream and downstream along an axial path of travel through a fluid delivery channel having an exit to a cavity of a mold which is reciprocally opened and closed by reciprocal downstream and upstream driven movement of a tip end of the valve pin into and out of the exit of the fluid delivery channel, the actuator housing being slidably mounted upstream (u) of the fluid delivery channel for controlled upstream and downstream movement of the drive member along a path complementary to the axial path of travel of the valve pin, a mounting plate and an axial position adjustment screw screwably mounted within the mounting plate upstream of the housing of the actuator, the adjustment screw being controllably screwable clockwise and counterclockwise within the mounting plate to move along an upstream and downstream path complementary to the axial path of travel of the drive member and the valve pin, the valve pin being movable to selectable starting or ending injection cycle axial positions upon interconnection of the valve pin to the drive member, clockwise or counterclockwise screwing of the adjustment screw within the mounting plate to corresponding selectable axial positions and subsequent interconnection of the adjustment screw to the actuator. an actuator comprising a housing having a chamber enclosing a drive member that is fixedly interconnectable to the valve pin, the drive member driving the valve pin reciprocally upstream and downstream along an axial path of travel through a fluid delivery channel having an exit to a cavity of a mold which is reciprocally opened and closed by reciprocal downstream and upstream driven movement of a tip end of the valve pin into and out of the exit of the fluid delivery channel, the actuator housing being slidably mounted upstream (u) of the fluid delivery channel for controlled upstream and downstream movement of the drive member along a path complementary to the axial path of travel of the valve pin, a mounting plate and an axial position adjustment screw screwably mounted within the mounting plate upstream of the housing of the actuator, the adjustment screw being controllably screwable clockwise and counterclockwise within the mounting plate to move along an upstream and downstream path complementary to the axial path of travel of the drive member and the valve pin, the valve pin being movable to selectable starting or ending injection cycle axial positions upon interconnection of the valve pin to the drive member, clockwise or counterclockwise screwing of the adjustment screw within the mounting plate to corresponding selectable axial positions and subsequent interconnection of the adjustment screw to the actuator.