mhurhangee/patent-ind-claim-en huggingface dataset:
A nucleic acid aptamer with the capability of binding specifically to and inhibiting TLR-4 and comprising a sequence selected from the group consisting of SEQ ID NO: 1 and SEQ ID NO: 2 or a functionally equivalent variant thereof having at least 70% sequence identity with SEQ ID NO:1 or SEQ ID NO:2.
Nodular cast alloy which has a perlitic-ferritic microstructure for cast iron products and has a high strength combined with good ductility and toughness even in the cast state, comprising, as nonferrous constituents, C, Si, Ni, Mn, Cu, Mg, Cr, Al, P, S and normal impurities, characterized in that the nodular cast alloy contains from 2.8 to 3.7% by weight of C, from 1.5 to 4% by weight of Si, from 1 to 6.2% by weight of Ni, from 0.02 to 0.05% by weight of P, from 0.025 to 0.06% by weight of Mg, from 0.01 to 0.03% by weight of Cr, from 0.003 to 0.3% by weight of Al, from 0.0005 to 0.012% by weight of S, from 0.03 to 1.5% by weight of Cu and from 0.1 to 2% by weight of Mn, balance Fe and unavoidable impurities, where the nodular cast alloy in the cast state without subsequent heat treatment achieves a high static strength of a 0.2% offset yield strength of ≥ 600 MPa and a tensile strength of ≥ 750 MPa combined with good ductility of an elongation at break A5 of from 2 to 10%, wherein the matrix microstructure surrounding the spheroidal graphite precipitates in this case has a perlitic-ferritic structure comprising > 50% of perlite, wherein the perlite is present as fine streaks and the ferrite is present in globular form.
An installation means for a device for treating, in particular humidifying and/or cleaning, a net fluid, in particular a gas, by means of a working fluid, in particular a liquid, getting into contact with the net fluid, and particularly for cooling water vapor by means of spray water and/or drip water as working fluid, comprising - at least one installation body having several adjoining layers of at least one mat element per layer, - wherein each mat element comprises a thickness extension and is limited by a circumferential edge , characterized in that - at least one mat element comprises a thickness gradient when viewed from the side to its edge by varying the thickness of the mat element between a point of the edge of the mat element and the point of the edge of the mat element opposite said point. - at least one installation body having several adjoining layers of at least one mat element per layer, - wherein each mat element comprises a thickness extension and is limited by a circumferential edge , characterized in that - at least one mat element comprises a thickness gradient when viewed from the side to its edge by varying the thickness of the mat element between a point of the edge of the mat element and the point of the edge of the mat element opposite said point.
Method for producing an electrode, comprising at least the steps of: a) providing constituent support material of the electrode, termed material , said material being capable of forming a current collector and consisting, at least on the surface, of at least one transition metal in zero oxidation state and/or of a transition metal oxide, b) contacting some or all of said material directly, in a reactor, with at least one lithium source , said contacting being carried out at a temperature at least equal to the melting temperature of said lithium source , and under conditions favouring the formation of a coating of at least one lithiated transition metal oxide, as active material, at the interface between said material and said lithium source, characterized in that the metal in zero oxidation state and/or the metal oxide present in contact with said material and with said lithium source form/forms the source of transition metal intended for thermal interaction with the lithium to form said active material, said method being carried out in molten salt. a) providing constituent support material of the electrode, termed material , said material being capable of forming a current collector and consisting, at least on the surface, of at least one transition metal in zero oxidation state and/or of a transition metal oxide, b) contacting some or all of said material directly, in a reactor, with at least one lithium source , said contacting being carried out at a temperature at least equal to the melting temperature of said lithium source , and under conditions favouring the formation of a coating of at least one lithiated transition metal oxide, as active material, at the interface between said material and said lithium source,
A liquid cold plate heat exchanger , comprising: a base having an upper surface ; a heat sink having a plurality of fins arranged on the upper surface of the base , the plurality of fins defining a top surface of the heat sink ; a cap having a lower surface positioned over the upper surface of the base and the heat sink ; and a spring plate positioned between the top surface of the heat sink and the lower 10 surface of the cap , wherein with the cap secured to the base , there is a gap between the top surface of the heat sink defined by the plurality of fins and the lower surface of the cap , the spring plate is arranged in the gap to exert an upward bias on the lower surface of the cap and a downward bias on the top surface of the heat sink , and characterised in that the spring plate spans across the plurality of the fins and has a thickness that closely approximates a height of the gap. a base having an upper surface ; a heat sink having a plurality of fins arranged on the upper surface of the base , the plurality of fins defining a top surface of the heat sink ; a cap having a lower surface positioned over the upper surface of the base and the heat sink ; and a spring plate positioned between the top surface of the heat sink and the lower 10 surface of the cap , wherein with the cap secured to the base , there is a gap between the top surface of the heat sink defined by the plurality of fins and the lower surface of the cap , the spring plate is arranged in the gap to exert an upward bias on the lower surface of the cap and a downward bias on the top surface of the heat sink , and characterised in that the spring plate spans across the plurality of the fins and has a thickness that closely approximates a height of the gap.
Compressor assembly for an air supply unit of a vehicle , comprising: - a compressor for providing pressurized air (DL), with a compressor housing , - at least one mounting bracket , wherein the at least one mounting bracket is fixed to the compressor housing , - for each mounting bracket one bearing , for connecting the compressor assembly to a housing structure of the air supply unit , characterized in that - the bearing comprises a flexible, hollow bellow , adapted to receive a gaseous medium , wherein the bellow comprises - at least one mounting feature (130, 130', 130"), in particular recess (132, 134, 134.1, 134.2, 134.3, 134.4), adapted to receive the mounting bracket , and - the bellow is adapted to be pneumatically charged from an unpressurized state (SU) into a pressurized state (SP), wherein - the mounting feature (130, 130', 130") is adapted to mechanically connect the bellow to the mounting bracket in a pressurized state (SP) by means of a positive lock (PL). - a compressor for providing pressurized air (DL), with a compressor housing , - at least one mounting bracket , wherein the at least one mounting bracket is fixed to the compressor housing , - for each mounting bracket one bearing , for connecting the compressor assembly to a housing structure of the air supply unit , - the bearing comprises a flexible, hollow bellow , adapted to receive a gaseous medium , wherein the bellow comprises - at least one mounting feature (130, 130', 130"), in particular recess (132, 134, 134.1, 134.2, 134.3, 134.4), adapted to receive the mounting bracket , and - the bellow is adapted to be pneumatically charged from an unpressurized state (SU) into a pressurized state (SP), wherein - the mounting feature (130, 130', 130") is adapted to mechanically connect the bellow to the mounting bracket in a pressurized state (SP) by means of a positive lock (PL).
A PD-1 antibody or an antigen-binding fragment thereof, comprising: a light chain variable region comprising a LCDR1, a LCDR2 and a LCDR3 as shown in SEQ ID NO: 6, SEQ ID NO: 7 and SEQ ID NO: 8, respectively; and a heavy chain variable region comprising a HCDR1, a HCDR2 and a HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively a light chain variable region comprising a LCDR1, a LCDR2 and a LCDR3 as shown in SEQ ID NO: 6, SEQ ID NO: 7 and SEQ ID NO: 8, respectively; and a heavy chain variable region comprising a HCDR1, a HCDR2 and a HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively
A liquid jetting structure comprising: a nozzle substrate on which a nozzle for jetting a liquid is formed; and a flow passage substrate on which a liquid flow passage communicating with the nozzle is formed, wherein a first layer , a second layer , and a liquid-repellent layer are provided in this order on a jetting surface of the nozzle substrate , the first layer and the second layer are provided in this order on an inner wall of the liquid flow passage , the first layer is a layer containing at least one selected from the group consisting of tantalum oxide, zirconium oxide, titanium oxide, and hafnium oxide, and the second layer is a layer containing at least one selected from the group consisting of SiO 2 , SiC, SiN, SiCN, and SiON, wherein a thickness of the second layer is 0.3 nm to 3 nm or 10 nm to 100 nm. a nozzle substrate on which a nozzle for jetting a liquid is formed; and a flow passage substrate on which a liquid flow passage communicating with the nozzle is formed, wherein a first layer , a second layer , and a liquid-repellent layer are provided in this order on a jetting surface of the nozzle substrate , the first layer and the second layer are provided in this order on an inner wall of the liquid flow passage , the first layer is a layer containing at least one selected from the group consisting of tantalum oxide, zirconium oxide, titanium oxide, and hafnium oxide, and the second layer is a layer containing at least one selected from the group consisting of SiO 2 , SiC, SiN, SiCN, and SiON, wherein a thickness of the second layer is 0.3 nm to 3 nm or 10 nm to 100 nm.
A refrigerator comprising: an insulated cabinet defining a refrigerated storage space ; a door pivotally mounted to the cabinet for selectively opening and closing the refrigerated storage space having an exterior face; an ice maker in the refrigerated storage space arranged to make and harvest ice pieces; an ice delivery system on the inside of the door for dispensing ice pieces into a dispenser cavity in the exterior face of the door , wherein the ice delivery system includes: an ice bin (24, 24', 24", 124, 156, 174, 224) including a generally open top and having a bottom opening, the refrigerator being characterized in that the ice bin (24, 24', 24", 124, 156, 174, 224) being pivotally mounted on the door below the ice maker to receive ice pieces harvested by the ice maker and to discharge ice pieces through the bottom opening and the ice delivery system in a first position, and to tilt out to permit access to ice pieces in a second position when the door is open. an insulated cabinet defining a refrigerated storage space ; a door pivotally mounted to the cabinet for selectively opening and closing the refrigerated storage space having an exterior face; an ice maker in the refrigerated storage space arranged to make and harvest ice pieces; an ice delivery system on the inside of the door for dispensing ice pieces into a dispenser cavity in the exterior face of the door , wherein the ice delivery system includes: an ice bin (24, 24', 24", 124, 156, 174, 224) including a generally open top and having a bottom opening, the refrigerator being characterized in that the ice bin (24, 24', 24", 124, 156, 174, 224) being pivotally mounted on the door below the ice maker to receive ice pieces harvested by the ice maker and to discharge ice pieces through the bottom opening and the ice delivery system in a first position, and to tilt out to permit access to ice pieces in a second position when the door is open.
A package for pourable food products, said package comprising an opening portion formed from a polymer composition, said opening portion comprising a weakening feature having a thickness below 200 micrometers and being thinner than parts of the opening portion directly adjacent to said weakening feature; characterized in that the polymer composition comprises sodium sulphite particles, said particles having the following size characteristics: (i) 0% having a size above 75 micrometers, and (ii) an average size below 25 micrometers. (i) 0% having a size above 75 micrometers, and (ii) an average size below 25 micrometers.
A clip suitable for mounting cementitious boards to a frame, said clip comprising, • A sheet having a front surface and a substantially flat back surface , said sheet comprising only one aperture for receiving a fastener; • At least first, second and third hook-shaped carrying means , contacting said front surface of said sheet and standing in front of said front surface; Said aperture and said first and second hook-shaped carrying means defining an axis being parallel to said back surface, said axis coinciding with said aperture and the point on said front surface being at minimum distance to but equidistant to said first and second hook-shaped carrying means; and said sheet comprising at least first and second bulges at its front surface provided in a direction parallel to the mounting direction of the board in the clip and substantially parallel to said axis , and being located at opposite sides of said aperture between said first and second hook-shaped carrying means ; characterized in that said sheet comprises at said front surface at least a third bulge having a thickness of between about 0.5 and about 2 mm, said third bulge being perpendicular to said axis and extending from a first point of the front surface at one side of said axis to a second point of the front surface at the other side of said axis, the sheet being uninterrupted along said third bulge. • A sheet having a front surface and a substantially flat back surface , said sheet comprising only one aperture for receiving a fastener; • At least first, second and third hook-shaped carrying means , contacting said front surface of said sheet and standing in front of said front surface; Said aperture and said first and second hook-shaped carrying means defining an axis being parallel to said back surface, said axis coinciding with said aperture and the point on said front surface being at minimum distance to but equidistant to said first and second hook-shaped carrying means; and said sheet comprising at least first and second bulges at its front surface provided in a direction parallel to the mounting direction of the board in the clip and substantially parallel to said axis , and being located at opposite sides of said aperture between said first and second hook-shaped carrying means ; characterized in that said sheet comprises at said front surface at least a third bulge having a thickness of between about 0.5 and about 2 mm, said third bulge being perpendicular to said axis and extending from a first point of the front surface at one side of said axis to a second point of the front surface at the other side of said axis, the sheet being uninterrupted along said third bulge.
Gas/Air mixing device for a gas burner, comprising a housing with at least one inlet for the gas, at least one inlet for the air and at least one outlet for the gas/air mixture; at least two venturi air nozzles , wherein each venturi air nozzle comprises an air nozzle inlet and an air nozzle outlet , and wherein to each air nozzle outlet there is assigned a gas nozzle so that air and gas can be mixed in the region of the air nozzle outlet of the respective venturi air nozzle ; at least one flow restrictor assigned to at least one venturi air nozzle capable of shutting the flow of air through the respective venturi air nozzle ; wherein the at least one flow restrictor is capable of shutting the flow of air through the respective venturi air nozzle and simultaneously the flow of gas through the gas nozzle assigned to the respective venturi air nozzle ; characterized in that the respective flow restrictor is bi-stable between a fully opened position and a fully closed position. a housing with at least one inlet for the gas, at least one inlet for the air and at least one outlet for the gas/air mixture; at least two venturi air nozzles , wherein each venturi air nozzle comprises an air nozzle inlet and an air nozzle outlet , and wherein to each air nozzle outlet there is assigned a gas nozzle so that air and gas can be mixed in the region of the air nozzle outlet of the respective venturi air nozzle ; at least one flow restrictor assigned to at least one venturi air nozzle capable of shutting the flow of air through the respective venturi air nozzle ; wherein the at least one flow restrictor is capable of shutting the flow of air through the respective venturi air nozzle and simultaneously the flow of gas through the gas nozzle assigned to the respective venturi air nozzle ; characterized in that the respective flow restrictor is bi-stable between a fully opened position and a fully closed position.
A secondary charged particle detection device for detection of a signal beam, comprising: a detector arrangement having at least two detection elements with active detection areas, wherein the active detection areas are separated by a gap (G); a particle optics configured for separating the signal beam into a first portion of the signal beam and into at least one second portion of the signal beam, and configured for focusing the first portion of the signal beam and the at least one second portion of the signal beam, wherein the particle optics comprises: an aperture plate ; and at least a first aperture opening in the aperture plate, and at least one second aperture opening in the aperture plate, wherein the first aperture opening has a concave shaped portion bent inwardly towards the center of the opening , particularly wherein the first aperture opening has a pincushion shape. a detector arrangement having at least two detection elements with active detection areas, wherein the active detection areas are separated by a gap (G); a particle optics configured for separating the signal beam into a first portion of the signal beam and into at least one second portion of the signal beam, and configured for focusing the first portion of the signal beam and the at least one second portion of the signal beam, wherein the particle optics comprises: an aperture plate ; and at least a first aperture opening in the aperture plate, and at least one second aperture opening in the aperture plate, wherein the first aperture opening has a concave shaped portion bent inwardly towards the center of the opening , particularly wherein the first aperture opening has a pincushion shape. an aperture plate ; and at least a first aperture opening in the aperture plate, and at least one second aperture opening in the aperture plate, wherein the first aperture opening has a concave shaped portion bent inwardly towards the center of the opening , particularly wherein the first aperture opening has a pincushion shape.
A method of synchronizing a local clock with a master clock using a serial communication bus , the method comprising: receiving, by a serial data interface receiver, a master time signal corresponding to a master clock; generating, by a frequency tuning loop , a time error signal corresponding to a difference between the master time signal and a local time signal; generating, by the frequency tuning loop, an actual frequency signal based on a reference frequency and the time error signal; producing, by the frequency tuning loop, a command frequency error based on the actual frequency signal and the local time signal; and producing by the local clock, an updated local time signal based on the command frequency error such that the updated local time signal is synchronized with the master time signal, and wherein the updated local time signal is representative of the local clock. receiving, by a serial data interface receiver, a master time signal corresponding to a master clock; generating, by a frequency tuning loop , a time error signal corresponding to a difference between the master time signal and a local time signal; generating, by the frequency tuning loop, an actual frequency signal based on a reference frequency and the time error signal; a reference frequency and the time error signal; producing, by the frequency tuning loop, a command frequency error based on the actual frequency signal and the local time signal; and producing by the local clock, an updated local time signal based on the command frequency error such that the updated local time signal is synchronized with the master time signal, and wherein the updated local time signal is representative of the local clock. actual frequency signal and the local time signal; and producing by the local clock, an updated local time signal based on the command frequency error such that the updated local time signal is synchronized with the master time signal, and wherein the updated local time signal is representative of the local clock.
A method of wireless communication, comprising: semi-statically selecting, by the serving base station , a maximum total number of virtual cell identifiers, IDs, associated with a combined area of the coordinated communication cluster and the one or more neighboring coordinated communication clusters; and semi-statically selecting, by the serving base station , a maximum cluster number of virtual cell IDs associated with a maximum number of virtual cell IDs per coordinated cluster, identifying , by the serving base station , a set of virtual cell IDs up to the maximum total number of virtual cell IDs and up to the maximum cluster number of virtual cell IDs, wherein the set of virtual cell IDs corresponds to at least one of: one or more transmission points located within a coordinated communication cluster in which a user equipment, UE, served by the serving base station is located, and one or more neighboring transmission points located within one or more neighboring coordinated communication clusters; grouping , by the serving base station , each virtual cell ID of the set of virtual cell IDs available for use in transmission into one or more subsets of virtual cell IDs according to a primary cell ID associated with said each virtual cell ID; and transmitting , by the serving base station , the one or more subsets of virtual cell IDs to the UE . semi-statically selecting, by the serving base station , a maximum total number of virtual cell identifiers, IDs, associated with a combined area of the coordinated communication cluster and the one or more neighboring coordinated communication clusters; and semi-statically selecting, by the serving base station , a maximum cluster number of virtual cell IDs associated with a maximum number of virtual cell IDs per coordinated cluster, identifying , by the serving base station , a set of virtual cell IDs up to the maximum total number of virtual cell IDs and up to the maximum cluster number of virtual cell IDs, wherein the set of virtual cell IDs corresponds to at least one of: one or more transmission points located within a coordinated communication cluster in which a user equipment, UE, served by the serving base station is located, and one or more neighboring transmission points located within one or more neighboring coordinated communication clusters; grouping , by the serving base station , each virtual cell ID of the set of virtual cell IDs available for use in transmission into one or more subsets of virtual cell IDs according to a primary cell ID associated with said each virtual cell ID; and transmitting , by the serving base station , the one or more subsets of virtual cell IDs to the UE .