mhurhangee/ep-ind-claims huggingface dataset:
Aqueous silver electrolyte for the galvanic deposition of silver layers on conductive substrates, comprising: a) at least one soluble silver compound in an amount between 2 and 200 g/L, based on the Ag metal; b) free cyanide in an amount of 20 - 200 g/L; c) at least one luster additive from the group consisting of arylsulfonic acids in an amount of 0.2 - 10 g/L; d) at least one wetting agent selected from the group of alkyl sulfates in an amount of 0.1 - 15 mill; e) at least one solid component selected from the group consisting of graphite, graphite fluoride, graphite oxide, diamond, Al 2 O 3 -enveloped graphite or mixtures thereof, in an amount of 2 - 200 g/L; wherein the electrolyte additionally has: f) at least one defoamer in an amount of 0.2 - 20 g/L, characterized in that the defoamer is selected from the group of polyalkylene glycols having an average molar mass of at least 200 g/mol. a) at least one soluble silver compound in an amount between 2 and 200 g/L, based on the Ag metal; b) free cyanide in an amount of 20 - 200 g/L; c) at least one luster additive from the group consisting of arylsulfonic acids in an amount of 0.2 - 10 g/L; d) at least one wetting agent selected from the group of alkyl sulfates in an amount of 0.1 - 15 mill; e) at least one solid component selected from the group consisting of graphite, graphite fluoride, graphite oxide, diamond, Al 2 O 3 -enveloped graphite or mixtures thereof, in an amount of 2 - 200 g/L; wherein the electrolyte additionally has: f) at least one defoamer in an amount of 0.2 - 20 g/L, characterized in that the defoamer is selected from the group of polyalkylene glycols having an average molar mass of at least 200 g/mol.
A gas turbine engine component comprising: a wall providing exterior and interior surfaces (96, 94), the interior surface facing an internal cooling passage of the gas turbine engine component, an aperture (298; 398) extending through the wall and interconnecting the interior and exterior surfaces (96, 94) to one another and configured to provide a cooling fluid from the cooling passage to the exterior surface, the aperture (298; 398) having first and second outlet holes (114; 116) overlapping one another at an intersection to provide opposing sharp corners at the intersection, characterised in that: the first and second outlet holes (114, 116) respectively include first and second diameters that are unequal to one another. a wall providing exterior and interior surfaces (96, 94), the interior surface facing an internal cooling passage of the gas turbine engine component, an aperture (298; 398) extending through the wall and interconnecting the interior and exterior surfaces (96, 94) to one another and configured to provide a cooling fluid from the cooling passage to the exterior surface, the aperture (298; 398) having first and second outlet holes (114; 116) overlapping one another at an intersection to provide opposing sharp corners at the intersection, characterised in that: the first and second outlet holes (114, 116) respectively include first and second diameters that are unequal to one another.
A terminal device comprising: a higher layer processing unit configured to receive first information and second information; a reception unit configured to receive downlink control information, DCI, carried by a physical downlink control channel, PDCCH; and a controller configured to compute a power headroom, wherein the first information includes information on a plurality of sounding reference signal, SRS, resources, the second information is information to configure a plurality of parameters to determine transmission power, the DCI includes information to indicate one of the plurality of the SRS resources, and information on scheduling of a physical uplink shared channel, PUSCH, wherein the controller is configured to compute the power headroom according to: a first parameter included in the plurality of parameters to determine transmission power in a case of an actual transmission of the PUSCH, and a second parameter included in the plurality of parameters to determine transmission power in a case of a reference format, and the first parameter is associated with the information to indicate the one of the plurality of the SRS resources in the DCI. a higher layer processing unit configured to receive first information and second information; a reception unit configured to receive downlink control information, DCI, carried by a physical downlink control channel, PDCCH; and a controller configured to compute a power headroom, wherein the first information includes information on a plurality of sounding reference signal, SRS, resources, the second information is information to configure a plurality of parameters to determine transmission power, the DCI includes information to indicate one of the plurality of the SRS resources, and information on scheduling of a physical uplink shared channel, PUSCH, wherein the controller is configured to compute the power headroom according to: a first parameter included in the plurality of parameters to determine transmission power in a case of an actual transmission of the PUSCH, and a second parameter included in the plurality of parameters to determine transmission power in a case of a reference format, and the first parameter is associated with the information to indicate the one of the plurality of the SRS resources in the DCI. a first parameter included in the plurality of parameters to determine transmission power in a case of an actual transmission of the PUSCH, and a second parameter included in the plurality of parameters to determine transmission power in a case of a reference format, and the first parameter is associated with the information to indicate the one of the plurality of the SRS resources in the DCI.
A method of adjusting a transmit power for sounding reference signals in a wireless communication system, performed by a user equipment, the method comprising: determining a plurality of transmit powers used for transmitting a plurality of sounding reference signals, SRSs, in a sounding reference symbol, wherein each of the plurality of SRSs corresponds to a respective serving cell; and characterized by: if a total transmit power for the plurality of SRSs exceeds a maximum transmit power, scaling each of the plurality of transmit powers with a same scaling factor to decrease each of the plurality of transmit powers. determining a plurality of transmit powers used for transmitting a plurality of sounding reference signals, SRSs, in a sounding reference symbol, wherein each of the plurality of SRSs corresponds to a respective serving cell; and characterized by: if a total transmit power for the plurality of SRSs exceeds a maximum transmit power, scaling each of the plurality of transmit powers with a same scaling factor to decrease each of the plurality of transmit powers.
A cracking catalyst composition capable of being maintained with a fluid cracking catalyst unit used in cracking hydrocarbon feedstock containing organic sulfur-containing compounds, the cracking catalyst composition comprising (a) Y-type zeolite selected from the group consisting of REY, REUSY, CREY, CREUSY and mixtures thereof, wherein the zeolite or a component comprising the zeolite comprises 0.3 percent or less by weight Na 2 O; (b) Lewis Acid-containing component having a content of 0.1 percent or less by weight of Na 2 O, wherein the Lewis Acid- containing component comprises alumina and Zn which is present as an oxide, as a cation or is in its zero valence state; wherein the cracking catalyst composition comprises 0.20 percent by weight Na 2 O or less, and comprises from 3 to 75 weight percent of the Lewis Acid-containing component, and wherein components (a) and (b) are present in the catalyst composition in the form of a physical mixture of Lewis Acid component (b) and zeolite (a) as separate particulates, or is in the form of a single particulate composite; and. wherein the Na 2 O content is determined by ion-coupled plasma analysis. (a) Y-type zeolite selected from the group consisting of REY, REUSY, CREY, CREUSY and mixtures thereof, wherein the zeolite or a component comprising the zeolite comprises 0.3 percent or less by weight Na 2 O; (b) Lewis Acid-containing component having a content of 0.1 percent or less by weight of Na 2 O, wherein the Lewis Acid- containing component comprises alumina and Zn which is present as an oxide, as a cation or is in its zero valence state;
Laser scanner for vehicle-borne surveying of an environment by time-of-flight measurement and determination of a 3D-model of the environment from distance measurement points, which laser scanner can be anchored on a vehicle having pitch, roll and yaw axes (N, R, G) and has a laser transmitter for emitting a transmission beam substantially transversely to the roll axis, a laser receiver for receiving the transmission beam reflected by the environment as reception beam, and a beam deflection device which comprises a first and a second optically refractive wedge disc (21, 22) in the beam path of the transmission and the reception beam (7, 10), a first and a second drive (23, 25) and a control unit for the drives (23, 25), wherein the first wedge disc can be driven by the first drive about a first driving axis and the second wedge disc can be driven by the second drive about a second driving axis, wherein the control unit has a signal input for a measurement signal (M o) about the orientation of the laser scanner in the environment and is configured to determine from the orientation measurement signal (M o) the roll angle (ρ) of the laser scanner about the roll axis with respect to the horizontal and to control the first and second drive (23, 25) such that the first wedge disc rotates about the first driving axis at a predetermined angular velocity (ω) and the second wedge disc pivots about the second driving axis into an angular position (α) that compensates the roll angle (ρ) determined.
A grouping unit to form a group consisting of two wraps, each containing a group of smoking articles; the grouping unit comprises: four pockets (68, 69, 70, 71), each designed to house a respective wrap; two output stations (S8, S9); an input station arranged between the two output stations (S8, S9); an insertion device, which is designed to simultaneously insert two wraps arranged at an input distance from one another into a first pocket and into a second pocket, which are, together, in the input station, or into a third pocket and into a fourth pocket, which are, together, in the input station; an extraction device, which is designed to simultaneously extract two wraps arranged at an output distance from one another, which is smaller than the input distance, from the first pocket and from the second pocket, which are, together, in a first output station, or from the third pocket and from the fourth pocket, which are, together, in a second output station, which is opposite the first output station relative to the input station; and a first moving device, which is designed to move, along a moving direction, the first pocket and the second pocket between the input station and the first output station and, simultaneously, is designed to move the third pocket and the fourth pocket between the second output station and in the input station. four pockets (68, 69, 70, 71), each designed to house a respective wrap; two output stations (S8, S9); an input station arranged between the two output stations (S8, S9); an insertion device, which is designed to simultaneously insert two wraps arranged at an input distance from one another into a first pocket and into a second pocket, which are, together, in the input station, or into a third pocket and into a fourth pocket, which are, together, in the input station; an extraction device, which is designed to simultaneously extract two wraps arranged at an output distance from one another, which is smaller than the input distance, from the first pocket and from the second pocket, which are, together, in a first output station, or from the third pocket and from the fourth pocket, which are, together, in a second output station, which is opposite the first output station relative to the input station; and a first moving device, which is designed to move, along a moving direction, the first pocket and the second pocket between the input station and the first output station and, simultaneously, is designed to move the third pocket and the fourth pocket between the second output station and in the input station.
A method of determining a constituent extracted from or secreted into a volume of medium in a vessel by a sample comprising cells, the method comprising: a. placing said sample in an apparatus comprising a vessel containing an original volume of medium within the vessel, the vessel having a surface to hold or contain the sample; a moveable barrier which alters the volume of the medium in contact with the sample; and a sensor disposed on the moveable barrier in sensing contact with the medium; b. moving the barrier to reduce the volume of the medium in contact with the sample, forming a reduced-volume measuring chamber in contact with the sample; c. determining a constituent in the medium in the reduced-volume measuring chamber with the sensor; d. moving the barrier to increase the reduced volume of medium about the cells to substantially the original volume; characterized in that at least one additional measurement cycle comprising step (b) and (c) is performed after step (d). a. placing said sample in an apparatus comprising a vessel containing an original volume of medium within the vessel, the vessel having a surface to hold or contain the sample; a moveable barrier which alters the volume of the medium in contact with the sample; and a sensor disposed on the moveable barrier in sensing contact with the medium; b. moving the barrier to reduce the volume of the medium in contact with the sample, forming a reduced-volume measuring chamber in contact with the sample; c. determining a constituent in the medium in the reduced-volume measuring chamber with the sensor; d. moving the barrier to increase the reduced volume of medium about the cells to substantially the original volume; characterized in that at least one additional measurement cycle comprising step (b) and (c) is performed after step (d).
A curable composition comprising: a cycloaliphatic epoxide; a siloxane selected from a siloxane comprising at least two epoxy groups per molecule wherein at least one of the epoxy groups is a cycloaliphatic epoxy group, and a cyclic siloxane comprising at least two epoxy groups per molecule; a curing agent; and a hydrogenated glycidyl ether epoxide; wherein the content of the hydrogenated glycidyl ether epoxide is 5 to 40 percent by weight based on the total amount (100 percent by weight) of curable compounds contained in the curable composition. a cycloaliphatic epoxide; a siloxane selected from a siloxane comprising at least two epoxy groups per molecule wherein at least one of the epoxy groups is a cycloaliphatic epoxy group, and a cyclic siloxane comprising at least two epoxy groups per molecule; a siloxane comprising at least two epoxy groups per molecule wherein at least one of the epoxy groups is a cycloaliphatic epoxy group, and a cyclic siloxane comprising at least two epoxy groups per molecule; a curing agent; and a hydrogenated glycidyl ether epoxide; wherein the content of the hydrogenated glycidyl ether epoxide is 5 to 40 percent by weight based on the total amount (100 percent by weight) of curable compounds contained in the curable composition.
A security bulwark for use on a ship, the security bulwark comprising a bulbous head section, a rear wall, a skirt and at least one first connector adapted to secure the security bulwark to a ship wherein the junction of the head section with the skirt forms an overhang extending away from the rear wall and the skirt extends below the bottom edge of the rear wall, characterised in that the rear wall is substantially planar and, in use, is adapted to be substantially parallel with a railing of the ship to which the bulwark is secured; the skirt is substantially planar and substantially parallel with the rear wall; the rear wall and the skirt define therebetween a gap sized to receive the railing of the ship; and the first connector, in use, is attached to both the skirt and the rear wall.
A protected energy storage device, ESD, cell comprising an energy storage device and a protective circuit for the energy-storage device, wherein the protective circuit comprises: a charge protection circuit adapted to disable current flow into the energy-storage device and allow current to flow out of the energy-storage device while a voltage corresponding to an overcharge state of the energy-storage device is detected; and a discharge protection circuit adapted to disable current flow out of the energy-storage device when a voltage corresponding to an overdischarged state of the energy-storage device is detected until a voltage corresponding to an operating range of the energy-storage device is detected and allow current to flow into the energy-storage device while a voltage corresponding to the overdischarged state of the energy-storage device is detected; a positive connection terminal comprising a positive connection terminal to the protected ESD cell, wherein the positive connection terminal is coupled to the discharge protection circuit and wherein the positive connection terminal is connectable to a negative connection terminal of a further protected ESD cell in series; a negative connection terminal comprising a negative connection terminal to the protected ESD cell, wherein the negative connection terminal is coupled to the charge protection circuit and wherein the negative connection terminal is connectable to a positive connection terminal of a further protected ESD cell in series; and an anti-parallel diode coupled between the positive and negative connection terminals (T3, T4). a charge protection circuit adapted to disable current flow into the energy-storage device and allow current to flow out of the energy-storage device while a voltage corresponding to an overcharge state of the energy-storage device is detected; and a discharge protection circuit adapted to disable current flow out of the energy-storage device when a voltage corresponding to an overdischarged state of the energy-storage device is detected until a voltage corresponding to an operating range of the energy-storage device is detected and allow current to flow into the energy-storage device while a voltage corresponding to the overdischarged state of the energy-storage device is detected; a positive connection terminal comprising a positive connection terminal to the protected ESD cell, wherein the positive connection terminal is coupled to the discharge protection circuit and wherein the positive connection terminal is connectable to a negative connection terminal of a further protected ESD cell in series; a negative connection terminal comprising a negative connection terminal to the protected ESD cell, wherein the negative connection terminal is coupled to the charge protection circuit and wherein the negative connection terminal is connectable to a positive connection terminal of a further protected ESD cell in series; and an anti-parallel diode coupled between the positive and negative connection terminals (T3, T4).
A heating apparatus for preforms, the heating apparatus comprising at least a heating unit that heats a preform to a temperature for blow molding of the preform into a bottle, and a driving unit that drives a pulley of the heating unit, wherein the heating unit includes at least a heater, a reflector, a spindle, an endless chain, and the pulley for rotating the endless chain, the heating unit is covered by a heating unit chamber, and a sterilizing apparatus that sterilizes an inside and an inner surface of the heating unit chamber is provided, an aseptic air supplying apparatus that supplies an aseptic air into the heating unit chamber is provided so as to supply the aseptic air from a lower part of the heating unit chamber.
A torch ignitor for a gas turbine engine, comprising an injection system comprising: an inner nozzle body defining a first air path along a longitudinal axis, wherein the first air path defines a converging-diverging section between an upstream portion of the first air path and an outlet orifice of the first air path, wherein a main orifice is defined at a narrowest portion of the converging-diverging section; a fuel circuit wall outboard of the inner nozzle body, wherein a fuel path is defined between the fuel circuit wall and the inner nozzle body; characterized in that it also comprises an outer nozzle body outboard of the fuel circuit wall with a second air path defined through the outer nozzle body for communication of air from the outer nozzle body into the first air path, wherein the second air path meets the first air path at a second orifice in the first air path downstream of the main orifice of the inner nozzle body, wherein the second air path passes from a first section through the outer nozzle body, to a second section that passes between the outer nozzle body and the fuel circuit wall, to a terminal section of the second air path and into the first air path at the second orifice, and wherein the first air path enters the converging-diverging section along an upstream portion of the longitudinal axis, and wherein the first section of the second air path approaches the second orifice from a direction along a downstream portion of the longitudinal axis, opposite the upstream portion. an inner nozzle body defining a first air path along a longitudinal axis, wherein the first air path defines a converging-diverging section between an upstream portion of the first air path and an outlet orifice of the first air path, wherein a main orifice is defined at a narrowest portion of the converging-diverging section; a fuel circuit wall outboard of the inner nozzle body, wherein a fuel path is defined between the fuel circuit wall and the inner nozzle body; characterized in that it also comprises an outer nozzle body outboard of the fuel circuit wall with a second air path defined through the outer nozzle body for communication of air from the outer nozzle body into the first air path, wherein the second air path meets the first air path at a second orifice in the first air path downstream of the main orifice of the inner nozzle body, wherein the second air path passes from a first section through the outer nozzle body, to a second section that passes between the outer nozzle body and the fuel circuit wall, to a terminal section of the second air path and into the first air path at the second orifice, and wherein the first air path enters the converging-diverging section along an upstream portion of the longitudinal axis, and wherein the first section of the second air path approaches the second orifice from a direction along a downstream portion of the longitudinal axis, opposite the upstream portion.