mhurhangee/patent-ind-claim-en huggingface dataset:
A ceramic circuit substrate for a power module, comprising a ceramic substrate ; at least one metal circuit for bonding a semiconductor chip thereto, the at least one metal circuit being bonded to the ceramic substrate ; a first insulating resin applied to a main surface of the metal circuit ; and a second insulating resin for preventing partial discharges or the lowering of insulation applied to an outer peripheral part of the metal circuit and/or between two metal circuits ; characterized in that the first insulating resin is for preventing solder flow or chip displacement and is spaced inward from the second insulating resin to surround a predetermined area on the main surface of the metal circuit . a ceramic substrate ; at least one metal circuit for bonding a semiconductor chip thereto, the at least one metal circuit being bonded to the ceramic substrate ; a first insulating resin applied to a main surface of the metal circuit ; and a second insulating resin for preventing partial discharges or the lowering of insulation applied to an outer peripheral part of the metal circuit and/or between two metal circuits ; characterized in that the first insulating resin is for preventing solder flow or chip displacement and is spaced inward from the second insulating resin to surround a predetermined area on the main surface of the metal circuit .
A method of separating impurities from a natural gas stream, comprising: cooling the natural gas stream through heat exchange with one or more process streams to produce a chilled gas stream; contacting the chilled gas stream with a lean solvent stream comprising a hindered amine in a contactor to separate hydrogen sulfide (H 2 S) from the chilled gas stream, thereby producing a rich solvent stream and a partially-treated gas stream ; removing H 2 S and carbon dioxide (CO 2 ) from the rich solvent stream to produce the lean solvent stream ; recirculating the lean solvent stream to the contactor ; and separating CO 2 and H 2 S from the partially-treated gas stream in a membrane separation system , thereby creating a fully-treated gas stream and a permeate gas stream , the permeate gas stream being comprised primarily of H 2 S and CO 2 , and the fully-treated gas stream being comprised primarily of natural gas, wherein the fully-treated gas stream and the permeate gas stream are at a lower temperature than the partially-treated gas stream ; wherein the fully-treated gas stream and the permeate gas stream comprise the one or more process streams. cooling the natural gas stream through heat exchange with one or more process streams to produce a chilled gas stream; contacting the chilled gas stream with a lean solvent stream comprising a hindered amine in a contactor to separate hydrogen sulfide (H 2 S) from the chilled gas stream, thereby producing a rich solvent stream and a partially-treated gas stream ; removing H 2 S and carbon dioxide (CO 2 ) from the rich solvent stream to produce the lean solvent stream ; recirculating the lean solvent stream to the contactor ; and separating CO 2 and H 2 S from the partially-treated gas stream in a membrane separation system , thereby creating a fully-treated gas stream and a permeate gas stream , the permeate gas stream being comprised primarily of H 2 S and CO 2 , and the fully-treated gas stream being comprised primarily of natural gas, wherein the fully-treated gas stream and the permeate gas stream are at a lower temperature than the partially-treated gas stream ; wherein the fully-treated gas stream and the permeate gas stream comprise the one or more process streams.
A method of generating a monoclonal function blocking antibody specific to a sodium ion channel Na v 1.7 said method comprising the step of at least two immunizations of a non-human host with a cyclic peptide of SEQ ID NO: 90 from an E1 extracellular sequence of said ion channel, wherein cyclic peptide is conjugated to a carrier and the carrier protein is different in the second immunization to that employed in the first immunization.
Smart card comprising a fingerprint sensor , characterized in that the smart card further comprises a detection circuit comprising at least one first electrode and one second electrode that are isolated from one another and form an open circuit in the detection circuit, the first electrode and the second electrode being disposed so that, when a user presses a first finger onto the fingerprint sensor, the first finger is in contact with the first electrode and the user can press a second finger onto the second electrode so as to form a loop closing the open circuit, the detection circuit further comprising a filtering circuit linked to the first electrode and to the second electrode, a generator arranged to generate first signals at the terminals of the filtering circuit, and processing means arranged to acquire second signals on one of the first electrode and second electrode and to detect from the second signals if the first finger and the second finger comprise a bogus finger.
A method for manufacturing a food product, comprising - mixing dehulled fava bean flour and vegetable protein flour to obtain a basic mixture, wherein the basic mixture comprises 15-30 wt-% of dehulled fava bean flour and 70-85 wt-% of vegetable protein flour; - adding water to the basic mixture in an amount of 30-70 wt-% of the total weight of the basic mixture and water to obtain a hydrated mixture; - kneading the hydrated mixture at a temperature of 100-150 °C in an extruder, to form a dough; and - allowing the dough to exit the extruder via a cooling die to form the food product, wherein the temperature of the food product at the exit of the cooling die is 50-95 °C. - mixing dehulled fava bean flour and vegetable protein flour to obtain a basic mixture, wherein the basic mixture comprises 15-30 wt-% of dehulled fava bean flour and 70-85 wt-% of vegetable protein flour; - adding water to the basic mixture in an amount of 30-70 wt-% of the total weight of the basic mixture and water to obtain a hydrated mixture; - kneading the hydrated mixture at a temperature of 100-150 °C in an extruder, to form a dough; and - allowing the dough to exit the extruder via a cooling die to form the food product, wherein the temperature of the food product at the exit of the cooling die is 50-95 °C.
A toilet training device comprising: a substantially circular seat portion having a top surface, a bottom surface, a front portion, a back portion, and a pair of side portions; and a flexible, raised portion extending from the top surface and positioned in the front portion that resiliently flexes flat with downward pressure by a toddler; characterized in that the raised front portion is comprised of a flexible resilient material that is co-molded onto the toilet training device. a substantially circular seat portion having a top surface, a bottom surface, a front portion, a back portion, and a pair of side portions; and a flexible, raised portion extending from the top surface and positioned in the front portion that resiliently flexes flat with downward pressure by a toddler; characterized in that the raised front portion is comprised of a flexible resilient material that is co-molded onto the toilet training device.
A device for the dosed administration of a fluid product, the device including: a) a housing having a reservoir for the product, b) a conveying device for the product, c) a drive member (5; 25) influenced by setting of a product dose, d) a coupling input member (6; 6') coupled to the drive member (5; 25), e) a coupling output member coupled to the conveying device , and f) a holding device (7, 9, 10; 6c, 14, 18'; 17, 19, 23, 24) which holds the coupling members (6, 9; 6', 9) in a mutually uncoupled holding position, g) wherein at least one of the coupling members (6, 9; 6', 9) is moveable with a coupling movement (X) out of the holding position into a coupling engagement in which a drive force of the drive member (5; 25) causes a dispensing movement of the conveying device by way of the coupling members (6, 9; 6', 9), characterised in that h) the coupling output member is fixed in the holding position of the coupling members (6, 9; 6', 9) relative to the housing such that it cannot perform any movement causing the dispensing movement. a) a housing having a reservoir for the product, b) a conveying device for the product, c) a drive member (5; 25) influenced by setting of a product dose, d) a coupling input member (6; 6') coupled to the drive member (5; 25), e) a coupling output member coupled to the conveying device , and f) a holding device (7, 9, 10; 6c, 14, 18'; 17, 19, 23, 24) which holds the coupling members (6, 9; 6', 9) in a mutually uncoupled holding position, g) wherein at least one of the coupling members (6, 9; 6', 9) is moveable with a coupling movement (X) out of the holding position into a coupling engagement in which a drive force of the drive member (5; 25) causes a dispensing movement of the conveying device by way of the coupling members (6, 9; 6', 9), characterised in that h) the coupling output member is fixed in the holding position of the coupling members (6, 9; 6', 9) relative to the housing such that it cannot perform any movement causing the dispensing movement.
A vaccine comprising non live Lawsonia intracellularis antigen and a pharmaceutically acceptable carrier for use in a method to reduce in a pig the negative impact on average daily weight gain (ADWG) associated with a post vaccination subclinical infection with Lawsonia intracellularis, by systemic administration of the vaccine to the pig.
Outlet guide vane for an axial compressor extending along a rotor axis (x), comprising an airfoil extending in a span direction from a radially inner end at 0% height to a radially outer end at 100% height, the airfoil comprising a suction side and an opposite pressure side , both sides extending in a chord direction from a leading edge to a trailing edge , wherein for each profile of the airfoil a stagger angle (γ) between the chord (C) and the rotor axis (x) is defined, wherein a stagger angle (γ) distribution in the span direction has a curved course (D) having a minimum (A) located between 40% and 60% in the span direction, a first maximum (M 1 ) at 0% height and a second maximum (M 2 ) at 100% height in the span direction characterized in that the stagger angle (γ) in the minimum (A) is between 1° and 7°.
A method of making a composite reinforcing fiber comprising: providing flat graphene oxide (GO) flakes; providing a reinforcing fiber; providing a host material; and coating the GO flakes on the reinforcing fiber; wherein the GO flakes have a surface area to thickness ratio greater than 300 Angstroms and a thickness of less than 160 Angstroms, and wherein the GO flakes have no physical surface distortions and no epoxy functionalization, and wherein surfaces of the GO flakes have the same hydrophobicity as the host material; and wherein the composite reinforcing fiber is used to make a structure by a method, comprising: air drying the coated reinforcing fiber; incorporating the coated reinforcing fiber into the host material; forming the host material with the incorporated coated reinforcing fiber into the structure; and adding water to react with the host material with one or more materials that form concrete to form a concrete composite when cured. providing flat graphene oxide (GO) flakes; providing a reinforcing fiber; providing a host material; and coating the GO flakes on the reinforcing fiber; wherein the GO flakes have a surface area to thickness ratio greater than 300 Angstroms and a thickness of less than 160 Angstroms, and wherein the GO flakes have no physical surface distortions and no epoxy functionalization, and wherein surfaces of the GO flakes have the same hydrophobicity as the host material; and wherein the composite reinforcing fiber is used to make a structure by a method, comprising: air drying the coated reinforcing fiber; incorporating the coated reinforcing fiber into the host material; forming the host material with the incorporated coated reinforcing fiber into the structure; and air drying the coated reinforcing fiber; incorporating the coated reinforcing fiber into the host material; forming the host material with the incorporated coated reinforcing fiber into the structure; and adding water to react with the host material with one or more materials that form concrete to form a concrete composite when cured.
An adhering method used for forming an automobile interior part, the adhering method comprising a step of spray-coating an adherend with a powder adhesive using an electrostatic powder spray gun, wherein the powder adhesive includes a mixture of two or more powders containing compounds having reactivity with each other, one of the powders is a powder including a compound having a functional group containing a nitrogen atom, and the powder including a compound having a functional group containing a nitrogen atom has a surface fixed with a fine powder having a particle size of 1/10 or less of that of the nitrogen-containing functional group containing powder and composed of calcium carbonate and/or clay.
A glass tube element comprising at least one section which is of hollow cylindrical form, wherein the section has at least one shell which encloses at least one lumen; wherein at least one path extending on the surface of the shell facing away from the lumen can be defined; wherein the path extends across at least one first area of the shell, where the stress values are within a first interval, and at least one second area of the shell, where the stress values are within a second interval. at least one section which is of hollow cylindrical form, wherein the section has at least one shell which encloses at least one lumen; wherein at least one path extending on the surface of the shell facing away from the lumen can be defined; wherein the path extends across at least one first area of the shell, where the stress values are within a first interval, and at least one second area of the shell, where the stress values are within a second interval.
A relay wireless transmit/receive unit, WTRU, comprising: a transceiver configured to at least: receive a temporary mobile group identity, TMGI, monitoring request message from a remote WTRU, wherein the TMGI monitoring request message is received via a PC5-S message, wherein the TMGI monitoring request message comprises a TMGI which the relay WTRU is requested to monitor and a ProSe per-packet priority level associated with the TMGI; receive, from a network, an evolved multimedia broadcast multicast service, eMBMS, data packet associated with the TMGI; a processor configured to at least: detect the TMGI that the relay WTRU was requested to monitor, determine the ProSe per-packet priority level associated with the detected TMGI, and apply the received ProSe per-packet priority level associated with the detected TMGI to the received eMBMS data packet; and relay the eMBMS data packet to the remote WTRU based on the ProSe per-packet priority level, wherein the eMBMS data packet is forwarded to the remote WTRU via a PC5 interface. a transceiver configured to at least: receive a temporary mobile group identity, TMGI, monitoring request message from a remote WTRU, wherein the TMGI monitoring request message is received via a PC5-S message, wherein the TMGI monitoring request message comprises a TMGI which the relay WTRU is requested to monitor and a ProSe per-packet priority level associated with the TMGI; receive, from a network, an evolved multimedia broadcast multicast service, eMBMS, data packet associated with the TMGI; receive a temporary mobile group identity, TMGI, monitoring request message from a remote WTRU, wherein the TMGI monitoring request message is received via a PC5-S message, wherein the TMGI monitoring request message comprises a TMGI which the relay WTRU is requested to monitor and a ProSe per-packet priority level associated with the TMGI; receive, from a network, an evolved multimedia broadcast multicast service, eMBMS, data packet associated with the TMGI; a processor configured to at least: detect the TMGI that the relay WTRU was requested to monitor, determine the ProSe per-packet priority level associated with the detected TMGI, and apply the received ProSe per-packet priority level associated with the detected TMGI to the received eMBMS data packet; and relay the eMBMS data packet to the remote WTRU based on the ProSe per-packet priority level, wherein the eMBMS data packet is forwarded to the remote WTRU via a PC5 interface. detect the TMGI that the relay WTRU was requested to monitor, determine the ProSe per-packet priority level associated with the detected TMGI, and apply the received ProSe per-packet priority level associated with the detected TMGI to the received eMBMS data packet; and relay the eMBMS data packet to the remote WTRU based on the ProSe per-packet priority level, wherein the eMBMS data packet is forwarded to the remote WTRU via a PC5 interface.
An arrangement for handling a pressure vessel comprising a load for isostatic pressure treatment in a high-pressure arrangement, comprising a transportation unit arranged in a first space, wherein the transportation unit is configured for horizontal transportation of the pressure vessel into the high-pressure arrangement before pressure treatment of the load, and out of the high-pressure arrangement after pressure treatment of the load, respectively, and an elevator unit vertically operable between the first space and a second space provided below the first space, wherein the elevator unit is configured to lift the load from the second space into the pressure vessel before pressure treatment of the load, and to lower the load from the pressure vessel to the second space after pressure treatment of the load, respectively, wherein the transportation unit comprises a pair of tracks upon which the pressure vessel is configured to be transported, and a carriage unit configured for transportation of the pressure vessel on the pair of tracks, wherein the carriage unit comprises a plurality of pair of wheels configured to roll on the pair of tracks, wherein the plurality of pair of wheels are resiliently mounted to the carriage unit in a vertical direction. a transportation unit arranged in a first space, wherein the transportation unit is configured for horizontal transportation of the pressure vessel into the high-pressure arrangement before pressure treatment of the load, and out of the high-pressure arrangement after pressure treatment of the load, respectively, and an elevator unit vertically operable between the first space and a second space provided below the first space, wherein the elevator unit is configured to lift the load from the second space into the pressure vessel before pressure treatment of the load, and to lower the load from the pressure vessel to the second space after pressure treatment of the load, respectively, wherein the transportation unit comprises a pair of tracks upon which the pressure vessel is configured to be transported, and a carriage unit configured for transportation of the pressure vessel on the pair of tracks, wherein the carriage unit comprises a plurality of pair of wheels configured to roll on the pair of tracks, wherein the plurality of pair of wheels are resiliently mounted to the carriage unit in a vertical direction.
A wear part for a bucket of a bucket machine, the wear part comprising - a forward edge for intruding in a material to be handled by the bucket , - an engagement portion for engaging with an engagement edge of the bucket , - a first side and a second side connecting the forward edge to the engagement portion , - a bottom face , and - an upper face , wherein - at least one of said first side and second side comprises a female tongue-and-groove fixing element a male tongue-and-groove fixing element for contacting a female tongue-and-groove fixing element arranged in an adjacent wear part and for completing a tongue-and-groove joint between said two adjacent wear parts , characterized in that - each male tongue-and-groove fixing element is realized by a separate body between two adjacent wear parts , and - the female tongue-and-groove fixing element comprises a receiving channel, wherein said separate body is arrangeable to said receiving channel, whereby a continuous lip of wear parts is constituted. - a forward edge for intruding in a material to be handled by the bucket , - an engagement portion for engaging with an engagement edge of the bucket , - a first side and a second side connecting the forward edge to the engagement portion , - a bottom face , and - an upper face , wherein - at least one of said first side and second side comprises a female tongue-and-groove fixing element a male tongue-and-groove fixing element for contacting a female tongue-and-groove fixing element arranged in an adjacent wear part and for completing a tongue-and-groove joint between said two adjacent wear parts , characterized in that - each male tongue-and-groove fixing element is realized by a separate body between two adjacent wear parts , and - the female tongue-and-groove fixing element comprises a receiving channel, wherein said separate body is arrangeable to said receiving channel, whereby a continuous lip of wear parts is constituted.
System control of the temperature of a catalyst and a particulate filter of a vehicle exhaust system with a hybrid engine, comprising : - a heat engine ; - at least one other motor source ; - a catalyst for the treatment of pollutant emissions from the engine , the said catalyst having a firing temperature at which said catalyst is in active mode in which said treatment is carried out ; - a particle filter intended for the treatment of polluting emissions originating from the heat engine , said filter having a regeneration temperature beyond which combustion of said particles is possible, the particle filter and the catalyst being heated when using the heat engine , and - an analysis and control means configured to determine a level of particulate matter load of the particulate filter as well as a temperature of said catalyst and of said filter , characterized in that the analysis and control means are configured to control the temperature of the catalyst , as a function of an instantaneous motive power demand from the driver and a request from the other source motor , to ensure that it is always at least equal to the initiation temperature and when a load threshold level of the particulate particle filter is determined to have been reached, the means analysis and control is configured to control the engine so that an the particulate filter reaches the temperature of regeneration to be regenerated. - a heat engine ; - at least one other motor source ; - a catalyst for the treatment of pollutant emissions from the engine , the said catalyst having a firing temperature at which said catalyst is in active mode in which said treatment is carried out ; - a particle filter intended for the treatment of polluting emissions originating from the heat engine , said filter having a regeneration temperature beyond which combustion of said particles is possible, the particle filter and the catalyst being heated when using the heat engine , and - an analysis and control means configured to determine a level of particulate matter load of the particulate filter as well as a temperature of said catalyst and of said filter ,
A crystalline siponimod fumaric acid, wherein the molar ratio of siponimod to fumaric acid is 1:1.