mhurhangee/ep-ind-claims huggingface dataset:
A process for producing an epitaxial silicon carbide single crystal substrate, comprising forming a silicon carbide film through epitaxial growth on a silicon carbide single crystal substrate by a chemical vapor deposition process, wherein the crystal growth step of epitaxially growing the silicon carbide film on the substrate includes a crystal growth sub-step involving a temperature switching operation which includes one or more T 0 -T 2 switching actions of switching the preset temperature from T 0 to T 2, and also includes one or more T 2 -T 0 switching actions of switching the preset temperature from T 2 to T 0, wherein T 0 is a lower preset temperature and T 2 is a higher preset temperature with respect to the growth temperature T 1 in the crystal growth main step occupying a longer duration of time than duration of time of the crystal growth sub-step in the crystal growth step; characterised in that the crystal growth sub-step takes 5 to 10 minutes and in that the switching in both temperature rise and temperature decrease is performed at a rate of from 100 to 150°C / min.
A peptide comprising the amino acid sequence of SEQ ID No. 47, or a pharmaceutically acceptable salt thereof, wherein said peptide has an overall length of up to 30 amino acids, and wherein said peptide has the ability to bind to a molecule of the human major histocompatibility complex class-I.
A piezoelectric laminate comprising, on a substrate in the following order: a lower electrode layer; and a piezoelectric film containing a perovskite-type oxide, wherein the lower electrode layer includes a first layer arranged in a state of being in contact with the substrate and includes a second layer arranged in a state of being in contact with the piezoelectric film, the first layer contains Ti or TiW as a main component, and the second layer is a uniaxial alignment film which contains Ir as a main component and in which the Ir is aligned in a plane, and characterised in that a half width at half maximum of an X-ray diffraction peak from the plane of the second layer is 0.3° to 0.45°; and the perovskite-type oxide is a compound represented by General Formula, Pb{(Zr x Ti 1-x) 1-y B1 y}O 3 0 < x < 1, 0 < y < 0.4, wherein B1 is one or more elements selected from V, Nb, Ta, Sb, Mo, and W. a lower electrode layer; and a piezoelectric film containing a perovskite-type oxide, wherein the lower electrode layer includes a first layer arranged in a state of being in contact with the substrate and includes a second layer arranged in a state of being in contact with the piezoelectric film, the first layer contains Ti or TiW as a main component, and the second layer is a uniaxial alignment film which contains Ir as a main component and in which the Ir is aligned in a plane, and characterised in that a half width at half maximum of an X-ray diffraction peak from the plane of the second layer is 0.3° to 0.45°; and the perovskite-type oxide is a compound represented by General Formula, Pb{(Zr x Ti 1-x) 1-y B1 y}O 3 0 < x < 1, 0 < y < 0.4, wherein B1 is one or more elements selected from V, Nb, Ta, Sb, Mo, and W.
A cutting element for an earth-boring tool, comprising: a diamond table positioned on a substrate; an indentation in a cutting face of the diamond table; and a shaped feature in the substrate at the interface between the diamond table and the substrate corresponding to the indentation in the cutting face of the diamond table; characterised in further comprising a sacrificial structure positioned within the indentation. a diamond table positioned on a substrate; an indentation in a cutting face of the diamond table; and a shaped feature in the substrate at the interface between the diamond table and the substrate corresponding to the indentation in the cutting face of the diamond table; characterised in further comprising a sacrificial structure positioned within the indentation.
Electrical circuit for a motor vehicle that comprises an internal combustion engine and electrical devices (4, 5, 6), including a starter for starting the internal combustion engine, the electrical circuit comprising: - a first terminal to be connected to the starter in order to supply electric current thereto, - at least one second terminal to be connected to another of said electrical devices (5, 6) in order to supply electric current thereto, - a first electric battery, comprising an accumulator module connected to the first terminal by way of a first controlled switch and connected to the second terminal by way of a second controlled switch, - a second electric battery, connected to the second terminal, and - an electronic control unit able to control the first and second controlled switches (K1, K2), characterized in that the control unit is programmed to: - control the first and second switches (K1, K2) into an open state when the motor vehicle is in a prolonged parked state, and - control the first switch into a closed state in a phase of starting the internal combustion engine, and - in at least one operating mode of the vehicle in which the vehicle is moving, control the second switch into a closed state so as to connect the first and second batteries (B1, B2) to one another in parallel, and in that the first and second batteries are such that, when the state of charge of the second battery is within an interval corresponding to a full charge, the open-circuit voltage across the terminals of the second battery is equal to the open-circuit voltage across the terminals of the first battery, while the state of charge of the first battery is within an interval corresponding to a partial charge. - a first terminal to be connected to the starter in order to supply electric current thereto, - at least one second terminal to be connected to another of said electrical devices (5, 6) in order to supply electric current thereto, - a first electric battery, comprising an accumulator module connected to the first terminal by way of a first controlled switch and connected to the second terminal by way of a second controlled switch, - a second electric battery, connected to the second terminal, and - an electronic control unit able to control the first and second controlled switches (K1, K2), - control the first and second switches (K1, K2) into an open state when the motor vehicle is in a prolonged parked state, and - control the first switch into a closed state in a phase of starting the internal combustion engine, and - in at least one operating mode of the vehicle in which the vehicle is moving, control the second switch into a closed state so as to connect the first and second batteries (B1, B2) to one another in parallel, and in that the first and second batteries are such that, when the state of charge of the second battery is within an interval corresponding to a full charge, the open-circuit voltage across the terminals of the second battery is equal to the open-circuit voltage across the terminals of the first battery, while the state of charge of the first battery is within an interval corresponding to a partial charge.
An ejector for use with a gas turbine engine compressor, the ejector comprising a motive nozzle tip having a centerline axis and comprising a nozzle tip edge comprising a plurality of protrusions extending through a plane substantially normal to the centerline axis, characterised in that said nozzle tip comprises a chevron shape, with triangular recesses defined between pairs of circumferentially-adjacent protrusions, and is configured to facilitate producing lobed-shaped vortices in a jet discharged therefrom.
A milking device comprising a support device configured for supporting a milking member having a claw and a number of teatcups to be attached to a respective teat of an animal to be milked during a milking operation, wherein the support device comprises a rear portion comprising attachment means configured for permitting attachment of the support device to a structure, an arm section extending along a longitudinal axis (x) and having a proximal end portion attached to the rear portion and a distal end portion (7") configured to be movable between at least an active position in the proximity of the animal to be milked and a rest position, a first cavity, extending along the arm section in parallel with the longitudinal axis (x) and housing a retracting member for retracting the milking member from the teats of the animal, and a second cavity, for conveying a fluid flow and extending along the arm section, characterized in that the arm section comprises an extruded part enclosing the first cavity and the second cavity wherein the second cavity extends along the arm section in parallel with the longitudinal axis (x) and is configured for permitting the transport of milk from the claw and wherein the second cavity is defined by a second inner wall surface and wherein the second cavity is configured to convey the milk and wherein the second inner wall surface is configured to be in contact with the milk flowing through the second cavity.
A tire vulcanization mold comprising a mold main body, and blades having, at proximal end sides thereof, embedded portions that are fixed to the mold main body in embedded states, and, at distal end sides thereof, projecting portions that project out from an inner surface of the mold main body, wherein at least one introducing path (33, 34) that extends from a projecting portion side surface toward a blade inner portion is formed at each blade, and characterised in that a connecting path, which is shaped as a closed space and which connects the introducing path (33, 34) and a proximal end opening that opens at a proximal end of the blade, is formed at an interior of each blade, a discharge path, whose one end opening communicates with the proximal end opening and whose other end opening communicates with an external space, is formed in the mold main body, and a maximum flow path sectional area at the connecting path is less than or equal to an opening surface area of the one end opening of the discharge path. at least one introducing path (33, 34) that extends from a projecting portion side surface toward a blade inner portion is formed at each blade, and characterised in that a connecting path, which is shaped as a closed space and which connects the introducing path (33, 34) and a proximal end opening that opens at a proximal end of the blade, is formed at an interior of each blade, a discharge path, whose one end opening communicates with the proximal end opening and whose other end opening communicates with an external space, is formed in the mold main body, and a maximum flow path sectional area at the connecting path is less than or equal to an opening surface area of the one end opening of the discharge path.
A method for delivering a Short Message Service, SMS, message in a mobile communication system, comprising: sending, by an originating User Equipment, UE,, to an evolved Node-B, eNB, a service request message for requesting SMS sending in a process of setting up RRC connection using a Radio Resource Control, RRC, connection complete message; sending, by the eNB, the received service request message to a Mobile Management Entity, MME, using an initial UE message; sending, by the MME, an initial context setup message that does not include information about data bearers, to the eNB in response to the initial UE message; upon receiving the initial context setup message, setting up, by the eNB, Access Stratum, AS, security with the originating UE; if the AS security is set up, performing, by the originating UE, Non Access Stratum, NAS, security process with the MME; and upon completion of the NAS security process with the MME, transmitting, by the originating UE, the SMS message to the MME using an uplink NAS transport message. sending, by an originating User Equipment, UE,, to an evolved Node-B, eNB, a service request message for requesting SMS sending in a process of setting up RRC connection using a Radio Resource Control, RRC, connection complete message; sending, by the eNB, the received service request message to a Mobile Management Entity, MME, using an initial UE message; sending, by the MME, an initial context setup message that does not include information about data bearers, to the eNB in response to the initial UE message; upon receiving the initial context setup message, setting up, by the eNB, Access Stratum, AS, security with the originating UE; if the AS security is set up, performing, by the originating UE, Non Access Stratum, NAS, security process with the MME; and upon completion of the NAS security process with the MME, transmitting, by the originating UE, the SMS message to the MME using an uplink NAS transport message.
An optical selective film including at least an Ag-containing layer and an Ag anti-diffusion layer situated adjacent to the Ag-containing layer, the optical selective film contributing to conversion of light to heat, characterised in that the Ag anti-diffusion layer includes β-FeSi 2 or α-FeSi 2.
A method for manufacturing a mixed substrate which comprises, on a main face of a support substrate, a first region, comprising a first single crystal material, and a second region, contiguous to the first region, comprising a second material, the method comprises the following steps of: a) providing a starting substrate which comprises a stack comprising at least one intermediate layer overlaying the main face of the support substrate, the intermediate layer comprising the second material in a single crystal or polycrystalline form; b) forming a mask on the stack, said mask comprising an aperture delimiting the location of the first region; c) etching the structure at the aperture so as to form a cavity delimited by a bottom and walls, the bottom being located on or in the support substrate; d) forming the first region by epitaxially growing the first material in a single crystal form in the cavity, the method being characterised in that it comprises a step c1), performed before step d), of forming a protective layer, made of an amorphous material, covering or exclusively covering the walls of the cavity so as to leave the bottom of said cavity exposed to external environment, wherein, at the end of step d), the first material entirely fills the cavity. a) providing a starting substrate which comprises a stack comprising at least one intermediate layer overlaying the main face of the support substrate, the intermediate layer comprising the second material in a single crystal or polycrystalline form; b) forming a mask on the stack, said mask comprising an aperture delimiting the location of the first region; c) etching the structure at the aperture so as to form a cavity delimited by a bottom and walls, the bottom being located on or in the support substrate; d) forming the first region by epitaxially growing the first material in a single crystal form in the cavity,
An antibody capable of specifically binding to IL-17A or a functional fragment capable of specifically binding to IL-17A thereof, wherein the antibody or the functional fragment thereof comprise a light chain and a heavy chain; the light chain comprises a light chain CDR consisting of CDR-L1, CDR-L2 and CDR-L3; the heavy chain comprises a heavy chain CDR consisting of CDR-H1, CDR-H2 and CDR-H3; the amino acid sequences of the CDR-L1, CDR-L2 and CDR-L3 are respectively set forth in SEQ ID NO: 1, 2 and 3; the amino acid sequences of the CDR-H1, CDR-H2 and CDR-H3 are respectively set forth in SEQ ID NO: 4, 5 and 6; preferably, the antibody or the functional fragment thereof includes an IL-17A chimeric antibody or a functional fragment thereof, and an IL-17A humanized antibody or a functional fragment thereof. the light chain comprises a light chain CDR consisting of CDR-L1, CDR-L2 and CDR-L3; the heavy chain comprises a heavy chain CDR consisting of CDR-H1, CDR-H2 and CDR-H3; the amino acid sequences of the CDR-L1, CDR-L2 and CDR-L3 are respectively set forth in SEQ ID NO: 1, 2 and 3; the amino acid sequences of the CDR-H1, CDR-H2 and CDR-H3 are respectively set forth in SEQ ID NO: 4, 5 and 6; preferably, the antibody or the functional fragment thereof includes an IL-17A chimeric antibody or a functional fragment thereof, and an IL-17A humanized antibody or a functional fragment thereof.
Use of crude polyol produced from biomass as grinding aid for grinding solids, wherein the crude polyol comprises oily components as secondary constituents and is stabilized by a solubilizer, and wherein the solubilizer comprises an alkaline substance or consists thereof, wherein the alkaline substance comprises in particular an alkanolamine, a fatty amine and/or an alkali metal hydroxide or consists thereof, and wherein the solubilizer is employed in a content of 1-9% by weight based on the total weight of the composition comprising at least one polyol produced from biomass.
An aqueous lubricant composition, characterized in that it comprises: 5-30 wt % of water, 0.01-10 wt % of a thickening agent selected from the group consisting of: hydroxy ethyl chitosan, dextrin, hydroxyethyl cellulose, starch, vegetable gums, hyaluronic acid, 0.5-10 wt % of an antioxidant, selected from curcumin, sesamol, tea polyphenols, lignin, flavone, rosmarinic acid, and inositol hexaphosphate, 0.5-5 wt% of a pH regulating agent selected from the group consisting of: ammonia, triethanolamine, triethylamine, sodium hydroxide and calcium hydroxide, and 15 to 93.99 wt% of glycerol. 5-30 wt % of water, 0.01-10 wt % of a thickening agent selected from the group consisting of: hydroxy ethyl chitosan, dextrin, hydroxyethyl cellulose, starch, vegetable gums, hyaluronic acid, 0.5-10 wt % of an antioxidant, selected from curcumin, sesamol, tea polyphenols, lignin, flavone, rosmarinic acid, and inositol hexaphosphate, 0.5-5 wt% of a pH regulating agent selected from the group consisting of: ammonia, triethanolamine, triethylamine, sodium hydroxide and calcium hydroxide, and 15 to 93.99 wt% of glycerol.
A cooling system comprising: a housing having opposing condensers (110, 115) that form opposing side walls of said housing; an auxiliary condenser attached to said housing that forms a top wall of said housing, wherein said auxiliary condenser is fluidly coupled to each of said opposing condensers (110, 115), wherein the auxiliary condenser is positioned between the opposing condensers (110, 115), and wherein said auxiliary condenser is a microchannel coil that is finless; a compressor, located within said housing forming part of a refrigeration loop, wherein said auxiliary condenser is fluidly interposed with said compressor and said opposing condensers (110, 115) such that said compressor is fluidly connected to said opposing condensers (110, 115) through said auxiliary condenser to form a refrigerant path from said compressor to said auxiliary condenser and from said auxiliary condenser to said opposing condensers (110, 115); a fan located within said housing and between said compressor and said auxiliary condenser, and positioned to pull air through said opposing condensers (110, 115) and force air through said housing and through said auxiliary condenser and out of said housing, wherein said fan is located adjacent said auxiliary condenser; an evaporator located within a fluid tank, said refrigeration loop fluidly coupling said evaporator with said compressor; and wherein said auxiliary condenser is positioned such that it serves as a protective grill for said fan. a housing having opposing condensers (110, 115) that form opposing side walls of said housing; an auxiliary condenser attached to said housing that forms a top wall of said housing, wherein said auxiliary condenser is fluidly coupled to each of said opposing condensers (110, 115), wherein the auxiliary condenser is positioned between the opposing condensers (110, 115), and wherein said auxiliary condenser is a microchannel coil that is finless; a compressor, located within said housing forming part of a refrigeration loop, wherein said auxiliary condenser is fluidly interposed with said compressor and said opposing condensers (110, 115) such that said compressor is fluidly connected to said opposing condensers (110, 115) through said auxiliary condenser to form a refrigerant path from said compressor to said auxiliary condenser and from said auxiliary condenser to said opposing condensers (110, 115); a fan located within said housing and between said compressor and said auxiliary condenser, and positioned to pull air through said opposing condensers (110, 115) and force air through said housing and through said auxiliary condenser and out of said housing, wherein said fan is located adjacent said auxiliary condenser; an evaporator located within a fluid tank, said refrigeration loop fluidly coupling said evaporator with said compressor; and wherein said auxiliary condenser is positioned such that it serves as a protective grill for said fan.
Method for drying laundry contained in a laundry dryer, said laundry dryer comprising a rotary drum suitable for containing laundry and the method comprising a drying phase in which an airflow is forced to circulate through the inside of said rotary drum while the rotary drum rotates initially according to a first predetermined rotational speed, characterized in that said drying phase comprises at least one speed scanning subphase in which the drum rotates at different speeds, the moisture content of the exiting air corresponding to each speed being measured and recorded, and at the end of said at least one scanning subphase the rotary drum rotates according to the speed corresponding to the highest moisture content measured.
A closure leaf comprising a closure frame part, the frame part comprising an element adapted for adjusting a boundary dimension of the frame part, the element being applied to the frame part by moulding, the closure frame part being substantially rectangular, each side (3, 4, 5, 6) having an element for adjusting a boundary dimension of the frame part, and each element comprising a rail (7, 7') the rails comprising transoms and stiles of the closure leaf, characterised in that the rails (7, 7') have a width of about 60mm and a base transom (6, 7') of the closure leaf comprises a plurality of rails (8, 9) which are superposed in an in use vertical sense.