mhurhangee/ep-ind-claims huggingface dataset:
A method of cleaning a SiC monocrystal growth furnace by using a gas to clean a SiC monocrystal growth furnace provided with an in-furnace substrate composed of a 3C-SiC polycrystal having at least a surface in which an intensity ratio of a plane with respect to other crystal planes is at least 85% but not more than 100% according to powder XRD analysis, wherein the in-furnace substrate includes the inner wall of the SiC monocrystal growth furnace and the members inside the SiC monocrystal growth furnace, the method comprising: flowing a mixed gas of fluorine gas and an inert gas in a non-plasma state through an inside of the SiC monocrystal growth furnace, thereby selectively removing a SiC deposit deposited inside the SiC monocrystal growth furnace, wherein the SiC deposit is a 3C-SiC polycrystal having an intensity ratio of the plane with respect to the other crystal planes of less than 85% according to powder XRD analysis, and the mixed gas comprises at least 1 vol% but not more than 20 vol% of fluorine gas, and at least 80 vol% but not more than 99 vol% of an inert gas, and a temperature inside the SiC monocrystal growth furnace is at least 200°C but not more than 500°C. flowing a mixed gas of fluorine gas and an inert gas in a non-plasma state through an inside of the SiC monocrystal growth furnace, thereby selectively removing a SiC deposit deposited inside the SiC monocrystal growth furnace, wherein the SiC deposit is a 3C-SiC polycrystal having an intensity ratio of the plane with respect to the other crystal planes of less than 85% according to powder XRD analysis, and the mixed gas comprises at least 1 vol% but not more than 20 vol% of fluorine gas, and at least 80 vol% but not more than 99 vol% of an inert gas, and a temperature inside the SiC monocrystal growth furnace is at least 200°C but not more than 500°C.
Coating composition suitable for the coating of a pharmaceutical or nutraceutical dosage form according to Claim 7, wherein the coating composition is comprising at least 20 % by weight of an enteric core/shell polymer composition derived from an emulsion polymerisation process, wherein either the core of the core/shell polymer composition is formed by a water-insoluble, not cross-linked polymer or copolymer and the shell of the core/shell polymer composition is formed by an anionic polymer or copolymer or vice versa, wherein the anionic polymer or copolymer is selected from the group of (meth)acrylate copolymers or polyvinyl polymers or copolymers or celluloses and wherein the anionic (meth)acrylate copolymer is comprising polymerized units of 10 to 40 % by weight of acrylic or methacrylic acid, 10 to 50 % by weight of ethyl acrylate, 10 to 80 % by weight of a C4- to C18-alkyl ester of acrylic or methacrylic acid and optionally 0 to 20 by weight of methyl methacrylate or polymerized units of 40 to 60% by weight methacrylic acid, and 60 to 40% by weight methyl methacrylate or 60 to 40% by weight ethyl acrylate or polymerized units of 20 to 40% by weight methacrylic acid and 80 to 60% by weight methyl methacrylate or or polymerized units of 10 to 30% by weight methyl methacrylate, 50 to 70% by weight methyl acrylate and 5 to 15% by weight methacrylic acid. 10 to 40 % by weight of acrylic or methacrylic acid, 10 to 50 % by weight of ethyl acrylate, 10 to 80 % by weight of a C4- to C18-alkyl ester of acrylic or methacrylic acid and optionally 0 to 20 by weight of methyl methacrylate 40 to 60% by weight methacrylic acid, and 60 to 40% by weight methyl methacrylate or 60 to 40% by weight ethyl acrylate 20 to 40% by weight methacrylic acid and 80 to 60% by weight methyl methacrylate or 10 to 30% by weight methyl methacrylate, 50 to 70% by weight methyl acrylate and 5 to 15% by weight methacrylic acid.
High-alumina raw material, comprising (relative to the dry substance) Al 2 O 3 50 - 90 wt% MgO 1 - 20 wt% SiO 2 0.5 - 15 wt% AlN 0.1 - 15 wt% Fe 2 O 3 0.1 - 5 wt% CaO 0.1 - 7 wt% F 0.1 - 10 wt% Na 2 O 0.1 - 6 wt% K 2 O 0.1 - 2 wt% Al metal 0.1 - 10 wt% Si metal 0.1 - 3 wt% Fe metal 0.1 - 3 wt% ignition loss 0.1 - 15 wt% remaining materials max. 5 wt%, with the main mineral constituents - bayerite (Al 2 O 3 ·3H 2 O) and boehmite (Al 2 O 3 ·H 2 O) - corundum (Al 2 O 3) - spinel (MgO·Al 2 O 3) and with a moisture content of max. 10 wt% and a particle size of at least 90 wt% below 500 μ m, characterized in that the specific surface area is greater than 50 m 2 /g and that the mean pore diameter is below 100 A. - bayerite (Al 2 O 3 ·3H 2 O) and boehmite (Al 2 O 3 ·H 2 O) - corundum (Al 2 O 3) - spinel (MgO·Al 2 O 3)
An electrical component assembly for a vehicle brake system comprising: an electrical component; and a housing in which the electrical component is fitted, wherein the electrical component and the housing are fixed to a surface of a base body, the electrical component includes a connection terminal to be press-contacted into a throughhole of a control board provided in the housing, and the direction of the connection terminal being inserted into the throughhole is the same as that of the electrical component being fitted to the housing, characterised in that the electrical component is provided with an electrical component adhesion margin facing said surface of the base body, so as to be fixed to the base body by an adhesive interposed between the base body and the electrical component adhesion margin, the electrical component is provided on the outer surface thereof, perpendicular to the direction of said assembling, with a protruding rib to be press-fitted into a groove of the housing, and the electrical component adhesion margin is formed to include at least a part of the rib. an electrical component; and a housing in which the electrical component is fitted, wherein the electrical component and the housing are fixed to a surface of a base body, the electrical component includes a connection terminal to be press-contacted into a throughhole of a control board provided in the housing, and the direction of the connection terminal being inserted into the throughhole is the same as that of the electrical component being fitted to the housing, characterised in that the electrical component is provided with an electrical component adhesion margin facing said surface of the base body, so as to be fixed to the base body by an adhesive interposed between the base body and the electrical component adhesion margin, the electrical component is provided on the outer surface thereof, perpendicular to the direction of said assembling, with a protruding rib to be press-fitted into a groove of the housing, and the electrical component adhesion margin is formed to include at least a part of the rib.
Refrigerator for storing vials containing a (bio)pharmaceutical substance, in particular vaccines for animals, comprising a cabinet having an internal space for accommodating the vials arranged in columns, a cooling element for cooling the internal space and at least one door or dispenser for removing vials from the internal space, characterised by comprising a plurality of cartridges suitable for being used in the refrigerator and suitable for accommodating the vials, the plurality of cartridges are removably mounted inside the space, wherein the cartridges comprise guides (12, 15) configured to slidingly accommodate columns of the vials, and wherein each of the guides (12, 15) or each set of guides (12, 15) comprises a dispensing section where the vials can be removed from the guides (12, 15), and wherein the columns extend in a direction having a vertical component, and wherein the door respectively the dispenser is located at the dispensing section of one or more columns and allows access to a limited number of vials.
An assembly comprising: a turbine housing (310, 1310, 1410, 1510, 1710) that defines an inlet, a bore, a volute, a wastegate opening, a passage (324, 1324, 1424, 1524) to one side of the wastegate opening that extends in a direction of flow from the inlet to the volute and a chamber (330, 1330, 1430, 1530, 1730) to another side of the wastegate opening and that comprises a wastegate seat (326, 1326, 1426, 1526, 1726) disposed about the wastegate opening; a rotatable wastegate shaft (352, 820, 920, 1740) configured for receipt by the bore; a wastegate arm (354, 840, 940, 1752) that extends from the wastegate shaft (352, 820, 920, 1740); and a wastegate plug (500, 700, 1600, 1750) that extends from the wastegate arm (354, 840, 940, 1752); characterised in that the wastegate seat (326, 1326, 1426, 1526, 1726) and the wastegate opening comprise a toe end and a back end oriented in the direction of flow from the inlet to the volute, in that the back end comprises a radius of curvature that exceeds a radius of curvature of the toe end, and in that the wastegate plug (500, 700, 1600, 1750) comprises a seal surface (565, 566, 765, 766, 1666, 1758) that comprises a toe end (502, 702, 1755) and a back end (504, 704, 1757) that corresponds to and contacts the toe end and the back end of the wastegate seat (326, 1326, 1426, 1526, 1726). a turbine housing (310, 1310, 1410, 1510, 1710) that defines an inlet, a bore, a volute, a wastegate opening, a passage (324, 1324, 1424, 1524) to one side of the wastegate opening that extends in a direction of flow from the inlet to the volute and a chamber (330, 1330, 1430, 1530, 1730) to another side of the wastegate opening and that comprises a wastegate seat (326, 1326, 1426, 1526, 1726) disposed about the wastegate opening; a rotatable wastegate shaft (352, 820, 920, 1740) configured for receipt by the bore; a wastegate arm (354, 840, 940, 1752) that extends from the wastegate shaft (352, 820, 920, 1740); and a wastegate plug (500, 700, 1600, 1750) that extends from the wastegate arm (354, 840, 940, 1752);
A refrigerant system comprising: a compressor for compressing a refrigerant and delivering said refrigerant to a downstream condenser; an expansion device positioned downstream of said condenser; an evaporator positioned downstream of said expansion device; a suction valve positioned on a suction line leading from said evaporator back to said compressor; a discharge valve positioned intermediate said compressor and said condenser; a bypass line for communicating a discharge line from said compressor back to said suction line, said bypass line being configured to communicate with said suction line at a position downstream of said suction valve; and a third valve positioned on said bypass line, and characterised in that: said compressor is configured to be provided with a rapidly cycled unloaded mode where said discharge valve is configured to block flow of refrigerant from said compressor to said condenser when the compressor is in said unloaded mode; and said refrigerant system further comprises a control for closing said suction valve and said discharge valve when said compressor is moved into said unloaded mode, said unloaded mode occurring by opening said third valve allowing refrigerant from said discharge line to flow back to said suction line downstream of said suction valve. a compressor for compressing a refrigerant and delivering said refrigerant to a downstream condenser; an expansion device positioned downstream of said condenser; an evaporator positioned downstream of said expansion device; a suction valve positioned on a suction line leading from said evaporator back to said compressor; a discharge valve positioned intermediate said compressor and said condenser; a bypass line for communicating a discharge line from said compressor back to said suction line, said bypass line being configured to communicate with said suction line at a position downstream of said suction valve; and a third valve positioned on said bypass line, and characterised in that: said compressor is configured to be provided with a rapidly cycled unloaded mode where said discharge valve is configured to block flow of refrigerant from said compressor to said condenser when the compressor is in said unloaded mode; and said refrigerant system further comprises a control for closing said suction valve and said discharge valve when said compressor is moved into said unloaded mode, said unloaded mode occurring by opening said third valve allowing refrigerant from said discharge line to flow back to said suction line downstream of said suction valve. said compressor is configured to be provided with a rapidly cycled unloaded mode where said discharge valve is configured to block flow of refrigerant from said compressor to said condenser when the compressor is in said unloaded mode; and said refrigerant system further comprises a control for closing said suction valve and said discharge valve when said compressor is moved into said unloaded mode, said unloaded mode occurring by opening said third valve allowing refrigerant from said discharge line to flow back to said suction line downstream of said suction valve.
A method of making a lubrication box, the method comprising the steps of: - providing a first portion of the lubrication box, the first portion having a skin-engaging surface and at least one sidewall that form a cavity, the skin-engaging surface having at least two holes therethrough, - pre-forming a first amount of shaving aid material (30,50,52,54) into a pre-determined shape, - placing the pre-formed first amount of shaving aid material (30,50,52,54) into the cavity of the first portion of the lubrication box - compressing the first amount shaving aid material (30,50,52,54) to form a first layer of shaving aid material (30,50,52,54) such that the first layer fills at least a portion of one of the holes, - providing a second portion of the lubrication box that covers an open end of the cavity of the first portion such that a gap remains between the compressed shaving aid material (30,50,52,54) and an inner surface of the second portion of the lubrication box, and - affixing the second portion of the lubrication box to the first portion of the lubrication box. - providing a first portion of the lubrication box, the first portion having a skin-engaging surface and at least one sidewall that form a cavity, the skin-engaging surface having at least two holes therethrough, - pre-forming a first amount of shaving aid material (30,50,52,54) into a pre-determined shape, - placing the pre-formed first amount of shaving aid material (30,50,52,54) into the cavity of the first portion of the lubrication box - compressing the first amount shaving aid material (30,50,52,54) to form a first layer of shaving aid material (30,50,52,54) such that the first layer fills at least a portion of one of the holes, - providing a second portion of the lubrication box that covers an open end of the cavity of the first portion such that a gap remains between the compressed shaving aid material (30,50,52,54) and an inner surface of the second portion of the lubrication box, and - affixing the second portion of the lubrication box to the first portion of the lubrication box.
Fitting set and closing aids (12, 13) for two sliding door wings (6, 9), comprising a first running part for a rear sliding door wing and a second running part for a front sliding door wing (6, 9), wherein each running part (5, 8) comprises a roller support (5a, 8a) which can be fastened to a sliding door wing (6, 9) and an activator (10, 11) for actuating a closing aid (12, 13) for the respective sliding door wing (6, 9), wherein each of the closing aids (12, 13) comprises an energy storage device, which is pretensioned during the opening of a sliding door wing (6, 9) over a specific displacement path of the sliding door wing (6, 9) and the activator (10, 11) is thereby coupled at first with a driver of the closing aid (12, 13) and once the energy storage device is pretensioned, the activator (10, 11) is decoupled from the driver (14, 15) by a yielding movement of the driver (14, 15), wherein both activators (10, 11) are made of plastic, characterized in that the activator of the rear running part is fixed exclusively by latching onto the roller support and the activator of the front running part is partly anchored in an interlocking manner on the roller support and is provided in a region (11 a) protruding beyond the roller support with breakthroughs (11 b) for fastening means for fixing a sliding door wing.
An oral care composition comprising: isobutyl magnolol; propylene glycol monolaurate; and an orally acceptable carrier; wherein the propylene glycol monolaurate is present in an amount effective to solubilize the isobutyl magnolol in the orally acceptable carrier and wherein the ratio by weight of isobutyl magnolol to propylene glycol monolaurate is from 0.2:1 to 2:1.
Aircraft propulsion assembly comprising a propeller having an axis of rotation, a plurality of electric motors, a transmission system configured to couple the electric motors to the propeller and comprising an output shaft connected to the propeller, and a propeller pitch adjustment system, the transmission system delimiting a front zone in which the propeller is positioned, and a rear zone opposite the front zone, the propeller pitch adjustment system being positioned in the rear zone, characterized in that at least one of the electric motors is positioned in the front zone, and in that the propulsion assembly comprises a connection structure interposed between the propeller and the transmission system, the connection structure and the output shaft of the transmission system connected to the propeller being configured in such a way that no electric motor positioned in the front zone interferes with the propeller.
A method in a base station of a communication network, acting as a target base station, for enabling detection of a manipulated or defect base station, acting as a source base station, in connection with a handover of a user equipment -UE-, said method comprising the steps of: - receiving a prioritized algorithm list -PAL- from the network, said list listing algorithms allowed for use when communicating with said UE in order of priority; - receiving UE security capabilities -SCAP- related information from the source base station for the UE that is handed over between the two base stations; - selecting at least one algorithm having the highest priority according to the PAL out of the algorithms being supported by said UE according to said UE SCAP related information and by the target base station, characterized in the step of - reporting the received UE SCAP related information to a core network node that has knowledge of the UE SCAP of said UE, thereby enabling said core network node to use said UE SCAP related information for detection of a manipulated or defect base station. - receiving a prioritized algorithm list -PAL- from the network, said list listing algorithms allowed for use when communicating with said UE in order of priority; - receiving UE security capabilities -SCAP- related information from the source base station for the UE that is handed over between the two base stations; - selecting at least one algorithm having the highest priority according to the PAL out of the algorithms being supported by said UE according to said UE SCAP related information and by the target base station, characterized in the step of - reporting the received UE SCAP related information to a core network node that has knowledge of the UE SCAP of said UE, thereby enabling said core network node to use said UE SCAP related information for detection of a manipulated or defect base station.
Boot floor for a motor vehicle, characterized in that it comprises a stand (7, 7") extending over the width of the boot and a boot carpet composed of a removable front carpet (3, 3', 3") and of a rear carpet, the removable front carpet (3, 3', 3") being able to occupy two positions, a lower position to define a normal configuration of the boot of the vehicle, in which it comes in the continuity of the rear carpet, and a position in which its front part is raised and bears on the stand (7"), which extends along a front edge of the front carpet (3, 3', 3"), to define a storage volume below the carpet (3") in an estate configuration of the motor vehicle, its rear part remaining approximately at the same level as in the normal configuration.
Electric heating device, in particular for a motor vehicle, - with a heating module which comprises at least one electric heating element that, in operation, generates heat when it is electrically supplied, - with a heat transfer volume, - wherein the heating module is arranged in the heat transfer volume through which a flow path of a fluid passes, such that, in operation, the heating module and the fluid transfer heat, - wherein the heating module extends in a longitudinal direction, - with a control housing made of metal or alloy which delimits a control volume, - with a power electronic for electrically supplying the heating module, which is arranged in the control volume, - the heating module comprises an outer cover made of metal or alloy that surrounds the at least one heating element in a circumferential direction running circumferential with respect to the longitudinal direction, - the control housing comprises a pass opening through which a longitudinal end of the heating module is passed, - the heating module is electrically connected to the power electronic in the control housing, - a sealing arrangement fluidically seals the control volume against the heat transfer volume, characterized in that the sealing arrangement is arranged in the pass opening between an inner jacket of the pass opening and the outer cover, and electrically insulates the outer cover from the control housing. - with a heating module which comprises at least one electric heating element that, in operation, generates heat when it is electrically supplied, - with a heat transfer volume, - wherein the heating module is arranged in the heat transfer volume through which a flow path of a fluid passes, such that, in operation, the heating module and the fluid transfer heat, - wherein the heating module extends in a longitudinal direction, - with a control housing made of metal or alloy which delimits a control volume, - with a power electronic for electrically supplying the heating module, which is arranged in the control volume, - the heating module comprises an outer cover made of metal or alloy that surrounds the at least one heating element in a circumferential direction running circumferential with respect to the longitudinal direction, - the control housing comprises a pass opening through which a longitudinal end of the heating module is passed, - the heating module is electrically connected to the power electronic in the control housing, - a sealing arrangement fluidically seals the control volume against the heat transfer volume,