mhurhangee/ep-ind-claims huggingface dataset:
An end effector for use with a surgical stapling instrument, comprising: a first jaw having a staple cartridge with a plurality of staple cavities configured to seat staples therein, and an adjunct attached to a tissue-facing surface of the cartridge and overlying the plurality of staple cavities; a second jaw having an anvil with a plurality of staple-forming cavities formed on a tissue-facing surface thereof, the first and second jaws being configured to clamp the tissue therebetween; and a plurality of drivers disposed within the cartridge and configured to deploy a plurality of staples through the staple cavities, through the adjunct, and into tissue engaged between the first and second jaws, and to simultaneously cause the adjunct to detach from the cartridge, characterized in that each of the plurality of drivers has a post that is configured to extend beyond the tissue-facing surface of the cartridge to cause the adjunct to detach from the cartridge. a first jaw having a staple cartridge with a plurality of staple cavities configured to seat staples therein, and an adjunct attached to a tissue-facing surface of the cartridge and overlying the plurality of staple cavities; a second jaw having an anvil with a plurality of staple-forming cavities formed on a tissue-facing surface thereof, the first and second jaws being configured to clamp the tissue therebetween; and a plurality of drivers disposed within the cartridge and configured to deploy a plurality of staples through the staple cavities, through the adjunct, and into tissue engaged between the first and second jaws, and to simultaneously cause the adjunct to detach from the cartridge, characterized in that each of the plurality of drivers has a post that is configured to extend beyond the tissue-facing surface of the cartridge to cause the adjunct to detach from the cartridge.
An optical sensor with at least two transmitter-receiver units each comprising at least one transmitter emitting light beams and at least one receiver (6a, 6b) receiving light beams, wherein an evaluation unit (8a, 8b) and an output stage (9a, 9b) are associated with each transmitter-receiver unit, wherein output signals are generated in an evaluation unit (8a, 8b) as a function of signals from the respective transmitter-receiver unit and are output via the output stage (9a, 9b), and that in the event of failure of one transmitter-receiver unit the other continues to operate without feedback, wherein a safety sensor is provided, characterised in that the optical sensor continues to operate in a safety-technically uncritical operating state with a reduced functional or performance scope only for a predetermined time in the event of failure of a transmitter/receiver unit and a degraded safety level is implemented for the optical sensor.
A winding wheel equipped with a plurality of devices for wrapping a bundle of hollow fiber membranes, each device comprising a base featuring a trough in the shape of a cylinder section; and on each longitudinal side of the trough, a rigid flap with an inner surface forming a cylinder section, each of the two flaps being connected to the base via a hinge, the hinges being located on the longitudinal brims of the trough, so that each of the two flaps is moveable between a first position and a second position, wherein the device is configured to receive a sheet of wrapping material and a plurality of fibers when both flaps are in the first position, and the trough and the two flaps together frame a cylindrical void when both flaps are in the second position.
An ultrasound flow sensor apparatus, wherein the ultrasound flow sensor apparatus comprises at least one ultrasound transmitter, which is configured to output ultrasound into flowing fluid, wherein the ultrasound flow sensor apparatus comprises a frequency controller, which is configured to receive information on temperature of the fluid and feedback from the at least one ultrasound transmitter, and lock a frequency of the ultrasound output to driving frequency of the at least one ultrasound transmitter in order to control the frequency of the ultrasound output by the at least one ultrasound transmitter as a function of the temperature of the fluid. the ultrasound flow sensor apparatus comprises at least one ultrasound transmitter, which is configured to output ultrasound into flowing fluid, wherein the ultrasound flow sensor apparatus comprises a frequency controller, which is configured to receive information on temperature of the fluid and feedback from the at least one ultrasound transmitter, and lock a frequency of the ultrasound output to driving frequency of the at least one ultrasound transmitter in order to control the frequency of the ultrasound output by the at least one ultrasound transmitter as a function of the temperature of the fluid.
A retroreflective member comprising a reflective layer and transparent microscopic beads, the retroreflective member returning at least part of visible light incidence at an incident angle, in the direction of the incident angle at a phase difference corresponding to a visible light wavelength thereby intensifying (amplifying) a light component having the visible light wavelength by interference whereby the wavelength of the intensified light component of the visible light varies depending on the incident angle, wherein the reflective layer is a light-transmissive interference metal compound layer; wherein the metal compound is one material selected from the group consisting of zinc sulfide, titanium dioxide, indium oxide, tin oxide, zirconium dioxide, alumina, magnesium oxide, calcium fluoride, magnesium fluoride, sodium fluoride, and silicon dioxide; and the interference layer having an optical thickness within the range of 100 to 600 nm and a gradation of optical layer thickness within the range from 100 to 600 nm, characterized in that the interference layer is a single-layer interference film of said metal compound; and the interference layer is deposited on the bottom surface of the microscopic beads to be provided just below the transparent microscopic beads, the interference layer having a higher refractive index than the transparent microscopic beads; wherein a single colored or transparent or reflective resin layer is printed on the bottom surface of the interference layer; and an adhesive layer is provided under the single resin layer and is in contact with the single resin layer, the adhesive layer being provided for sticking the retroreflective member to a target surface.
A lighting device comprising: a light source; a photoluminescent plate including a first phosphor layer disposed above the light source and including a yellow phosphor, a base layer, wherein said first phosphor layer is disposed on a surface of the base layer, a second phosphor layer disposed on an opposite surface of the base layer and including a red phosphor; a housing receiving the light source and the photoluminescent plate; and a reflector disposed on an inner wall and bottom of the housing, wherein the base layer further comprises means for diffusing light, and the light source is disposed on the reflector, characterized in that the inner wall of the housing is inclined, wherein the surface of the base layer has a first roughness and the opposite surface of the base layer has a second roughness, wherein the first roughness and the second roughness are different from each other. a light source; a photoluminescent plate including a first phosphor layer disposed above the light source and including a yellow phosphor, a base layer, wherein said first phosphor layer is disposed on a surface of the base layer, a second phosphor layer disposed on an opposite surface of the base layer and including a red phosphor; a housing receiving the light source and the photoluminescent plate; and a reflector disposed on an inner wall and bottom of the housing, wherein the base layer further comprises means for diffusing light, and the light source is disposed on the reflector, characterized in that the inner wall of the housing is inclined, wherein the surface of the base layer has a first roughness and the opposite surface of the base layer has a second roughness, wherein the first roughness and the second roughness are different from each other.
An electrically operated aerosol-generating system (1, 101, 201, 301) comprising: an aerosol-generating article (2, 102, 202, 302) comprising: a tubular first component (4, 104, 204, 304) comprising a tubular first volatile substrate and an inner passage; and a second component (5, 105, 205, 305) comprising a second volatile substrate, the second component (5, 105, 205, 305) being configured to be received in the inner passage of the tubular first component (4, 104, 204, 304); and a main unit (3, 103, 203, 303) configured to receive the aerosol-generating article (2, 102, 202, 302), the main unit (3, 103, 203, 303) comprising: a first heating portion (14, 114, 214, 314) comprising one or more electric heaters, the one or more electric heaters being arranged to heat the first volatile substrate of the tubular first component (4, 104, 204, 304) when the aerosol-generating article (2, 102, 202, 302) is received by the main unit (3, 103, 203, 303); and a second heating portion (15, 115, 215, 315) comprising one or more electric heaters, the one or more electric heaters being arranged to heat the second volatile substrate of the second component (5, 105, 205, 305) when the aerosol-generating article (2, 102, 202, 302) is received by the main unit (3, 103, 203, 303). a tubular first component (4, 104, 204, 304) comprising a tubular first volatile substrate and an inner passage; and a second component (5, 105, 205, 305) comprising a second volatile substrate, the second component (5, 105, 205, 305) being configured to be received in the inner passage of the tubular first component (4, 104, 204, 304); and a main unit (3, 103, 203, 303) configured to receive the aerosol-generating article (2, 102, 202, 302), the main unit (3, 103, 203, 303) comprising: a first heating portion (14, 114, 214, 314) comprising one or more electric heaters, the one or more electric heaters being arranged to heat the first volatile substrate of the tubular first component (4, 104, 204, 304) when the aerosol-generating article (2, 102, 202, 302) is received by the main unit (3, 103, 203, 303); and a second heating portion (15, 115, 215, 315) comprising one or more electric heaters, the one or more electric heaters being arranged to heat the second volatile substrate of the second component (5, 105, 205, 305) when the aerosol-generating article (2, 102, 202, 302) is received by the main unit (3, 103, 203, 303). a first heating portion (14, 114, 214, 314) comprising one or more electric heaters, the one or more electric heaters being arranged to heat the first volatile substrate of the tubular first component (4, 104, 204, 304) when the aerosol-generating article (2, 102, 202, 302) is received by the main unit (3, 103, 203, 303); and a second heating portion (15, 115, 215, 315) comprising one or more electric heaters, the one or more electric heaters being arranged to heat the second volatile substrate of the second component (5, 105, 205, 305) when the aerosol-generating article (2, 102, 202, 302) is received by the main unit (3, 103, 203, 303).
A compound of formula: wherein AA 1 is either absent or is a rest derived from an amino acid selected from the group consisting of N-methyl-phenylalanine, N-methyl-tryptophan, N-methyl-tyrosine and N-methyl-isoleucine, AA 2 is either absent or is a rest derived from an amino acid selected from the group consisting of N-methyl-phenylalanine, N-methyl-alanine, N-methyl-β-alanine and N-methyl-leucine, G is a linear or branched alkylene rest comprising from 1 to 10 carbon atoms wherein one or more non-vicinal methylene moieties (-CH 2 -) in said rest may be replaced by corresponding oxygen atoms (-O-), R 1 is selected from the group consisting of hydrogen and phenyl, R 2, R 3 and R 4 are independently selected from the group consisting of hydrogen and fluorine, R 5 and R 6 are independently selected from the group consisting of hydrogen and fluorine, or a salt thereof. AA 1 is either absent or is a rest derived from an amino acid selected from the group consisting of N-methyl-phenylalanine, N-methyl-tryptophan, N-methyl-tyrosine and N-methyl-isoleucine, AA 2 is either absent or is a rest derived from an amino acid selected from the group consisting of N-methyl-phenylalanine, N-methyl-alanine, N-methyl-β-alanine and N-methyl-leucine, G is a linear or branched alkylene rest comprising from 1 to 10 carbon atoms wherein one or more non-vicinal methylene moieties (-CH 2 -) in said rest may be replaced by corresponding oxygen atoms (-O-), R 1 is selected from the group consisting of hydrogen and phenyl, R 2, R 3 and R 4 are independently selected from the group consisting of hydrogen and fluorine, R 5 and R 6 are independently selected from the group consisting of hydrogen and fluorine,
Method for customizing a monitoring device, said method comprising: sending a connection message from the monitoring device to a control server, receiving the connection message at the control server, extracting at the control server an identity code, being an identifier uniquely identifying the monitoring device, from a communication between the monitoring device and the control server, matching the identity code, being an identifier uniquely identifying the monitoring device, to a program code at the control server, generating at the control server a reconfiguration message including the program code, sending from the control server to the monitoring device the reconfiguration message, and receiving the reconfiguring message at the monitoring device, characterized by that the matching of the identity code to a program code is performed by matching the identity code to a service provider and then identifying program code associated with the service provider. sending a connection message from the monitoring device to a control server, receiving the connection message at the control server, extracting at the control server an identity code, being an identifier uniquely identifying the monitoring device, from a communication between the monitoring device and the control server, matching the identity code, being an identifier uniquely identifying the monitoring device, to a program code at the control server, generating at the control server a reconfiguration message including the program code, sending from the control server to the monitoring device the reconfiguration message, and receiving the reconfiguring message at the monitoring device, characterized by that the matching of the identity code to a program code is performed by matching the identity code to a service provider and then identifying program code associated with the service provider.
High-voltage overhead electric transmission line, which extends from a first electrical substation to a second electrical substation, wherein the high-voltage overhead electric transmission line comprises at least one "T" junction which forms a three-section joint, wherein a first section and a second section are arranged to allow the connection between the first electrical substation and the second electrical substation, and a third section is arranged to allow the connection to the high-voltage overhead electric transmission line, of a user or a third electrical substation or primary substation; the high-voltage overhead electric transmission line provides that the at least one "T" junction comprises two switchgear units: a first switchgear unit arranged to allow grid reconfigurations and installed on the first section, and a second switchgear unit arranged to allow grid reconfigurations and installed on the second section; wherein the first switchgear unit is installed on a volume occupied by the structure of a first tower of the high-voltage overhead electric transmission line and the second switchgear unit is installed on a volume occupied by the structure of a second tower of the high-voltage overhead electric transmission line; each switchgear unit (17, 17') including a plurality of switchgear unit poles (17A, 17B, 17C) each associated with a respective phase of the high-voltage overhead electric transmission line; each of said switchgear unit poles (17A, 17B, 17C) comprising a line circuit breaker and at least one line disconnector (52', 52"). the high-voltage overhead electric transmission line provides that the at least one "T" junction comprises two switchgear units: a first switchgear unit arranged to allow grid reconfigurations and installed on the first section, and a second switchgear unit arranged to allow grid reconfigurations and installed on the second section; wherein the first switchgear unit is installed on a volume occupied by the structure of a first tower of the high-voltage overhead electric transmission line and the second switchgear unit is installed on a volume occupied by the structure of a second tower of the high-voltage overhead electric transmission line; each switchgear unit (17, 17') including a plurality of switchgear unit poles (17A, 17B, 17C) each associated with a respective phase of the high-voltage overhead electric transmission line; each of said switchgear unit poles (17A, 17B, 17C) comprising a line circuit breaker and at least one line disconnector (52', 52").
A gas engine using low calorie gas with methane concentration of 50% or less as fuel, comprising: a main combustion chamber in which mixture gas containing the low calorie gas incorporated through an intake port is combusted; an auxiliary combustion chamber communicated with the main combustion chamber through a communication hole, the low calorie gas being fed to the auxiliary combustion chamber separately from a flow path to the main combustion chamber; an ignition plug arranged in the auxiliary combustion chamber for igniting the low calorie gas sprayed into the auxiliary combustion chamber to produce an ignition flame, the mixture gas in the main combustion chamber being combusted by the ignition flame ejected through the communication hole; and a PSA treatment unit (Pressure Swing Adsorption treatment unit) for obtaining methane gas with high methane concentration by separating impurities and inactive gas except for methane gas from the low calorie gas by adsorption, the methane gas with high methane concentration obtained by the PSA treatment unit being introduced into the auxiliary combustion chamber so that the methane gas is combusted by the ignition plug to produce the ignition flame. a main combustion chamber in which mixture gas containing the low calorie gas incorporated through an intake port is combusted; an auxiliary combustion chamber communicated with the main combustion chamber through a communication hole, the low calorie gas being fed to the auxiliary combustion chamber separately from a flow path to the main combustion chamber; an ignition plug arranged in the auxiliary combustion chamber for igniting the low calorie gas sprayed into the auxiliary combustion chamber to produce an ignition flame, the mixture gas in the main combustion chamber being combusted by the ignition flame ejected through the communication hole; and a PSA treatment unit (Pressure Swing Adsorption treatment unit) for obtaining methane gas with high methane concentration by separating impurities and inactive gas except for methane gas from the low calorie gas by adsorption, the methane gas with high methane concentration obtained by the PSA treatment unit being introduced into the auxiliary combustion chamber so that the methane gas is combusted by the ignition plug to produce the ignition flame.
A process for the production of a whey protein extract from a whey protein concentrate including the following steps in order: - contacting a whey protein concentrate with an aqueous solution, wherein the aqueous solution is water, thereby forming a sample including a soluble protein-containing component and an insoluble component; - recovering the soluble protein-containing component from the sample by separating the soluble protein-containing component from the insoluble component; - acidifying the soluble protein-containing component by providing a pH of at least 2.5 to 6.0 to the soluble protein-containing component; - neutralising the acidified soluble protein-containing component; thereby forming the whey protein extract. - contacting a whey protein concentrate with an aqueous solution, wherein the aqueous solution is water, thereby forming a sample including a soluble protein-containing component and an insoluble component; - recovering the soluble protein-containing component from the sample by separating the soluble protein-containing component from the insoluble component; - acidifying the soluble protein-containing component by providing a pH of at least 2.5 to 6.0 to the soluble protein-containing component; - neutralising the acidified soluble protein-containing component;
Rotary vane vacuum pump having a shaft and a drive arrangement, a motor stator, a motor rotor, and arranged between the motor stator and the motor rotor, a separation member which has an inner side and an outer side, characterised in that the separation member comprises a separation sleeve mounted and centred in at least two cylindrical, coaxial and axially spaced guide surfaces (10, 11), wherein the guide surfaces touch the outer side and in that the shaft is mounted in a slide bearing.
A troubleshooting method for a power supply device comprising an inverter power supply system, the inverter power supply system comprises at least two direct current to direct current, DC/DC power supply modules (1, 2), the at least two DC/DC modules (1, 2) are connected in parallel to a same battery and supply power to a load by using a direct current to alternating current, DC/AC power converter, and any one of the at least two DC/DC modules (1, 2) comprises a first fuse and a second fuse, a first relay and a second relay, a first inductor and a second inductor, a first switch module, a second switch module, and a third switch module, and a first direct current bus capacitor and a second direct current bus capacitor; one terminal of the first switch module is connected to one terminal of the first direct current bus capacitor, the other terminal of the first switch module is connected to one terminal of the second switch module, the other terminal of the second switch module is connected to one terminal of the third switch module, the other terminal of the first direct current bus capacitor is connected to the other terminal of the third switch module by using the second direct current bus capacitor, and one terminal of the first relay is connected to a positive terminal (BAT+) of the battery by using the first fuse, one terminal of the second relay is connected to a negative terminal (BAT-) of the battery by using the second fuse, the other terminal of the first relay is connected to the connection of the first switch module and the second switch module by using the first inductor, the other terminal of the second relay is connected to the connection of the second switch module and the third switch module by using the second inductor, and the troubleshooting method comprises: if it is detected that any one of the at least two DC/DC modules (1, 2) is faulty, determining a faulty component in the faulty module, and if the faulty component is the first direct current bus capacitor or the second direct current bus capacitor, and the inverter power supply system is in a battery discharging mode, turning on the second switch module in the faulty module, so that the first fuse and the second fuse of the faulty module are blown, to disconnect the faulty module from another DC/DC module; wherein said other terminal of the first direct current bus capacitor of the faulty module is connected to the other terminal of the first direct current bus capacitor of the another DC/DC module.