mhurhangee/ep-ind-claims huggingface dataset:
An encapsulation structure of a power module, wherein the encapsulation structure comprises the power module and a liquid cooler; the power module comprises a power module body, a metal baseplate, and heat dissipation fins; a front side of the metal baseplate is connected to the power module body, and a back side of the metal baseplate is connected to the heat dissipation fins; and the metal baseplate has a protrusion part protruding from the power module body; there are a plurality of grooves on a fluid pipe of the liquid cooler, a cavity exists between two adjacent grooves of the plurality of grooves, and the cavity is configured to communicate the two adjacent grooves; and the power module body is overlapped on the groove, a back side of the protrusion part is in contact with an edge surface of the groove, and the heat dissipation fins are placed in the groove; a front weld is positioned on a front side of the protrusion part; a back weld is positioned on the back side of the metal baseplate on a side of the baseplate other than the back side of the protrusion part; and the front weld and the back weld form a welded sealing ring. the power module comprises a power module body, a metal baseplate, and heat dissipation fins; a front side of the metal baseplate is connected to the power module body, and a back side of the metal baseplate is connected to the heat dissipation fins; and the metal baseplate has a protrusion part protruding from the power module body; there are a plurality of grooves on a fluid pipe of the liquid cooler, a cavity exists between two adjacent grooves of the plurality of grooves, and the cavity is configured to communicate the two adjacent grooves; and the power module body is overlapped on the groove, a back side of the protrusion part is in contact with an edge surface of the groove, and the heat dissipation fins are placed in the groove; a front weld is positioned on a front side of the protrusion part; a back weld is positioned on the back side of the metal baseplate on a side of the baseplate other than the back side of the protrusion part; and the front weld and the back weld form a welded sealing ring.
Vehicle brake system piston-pump piston which is produced with a sheet-metal bent part, characterized in that the sheet-metal bent part is rolled as a tube which has a seam along its longitudinal direction.
A method for selectively removing zinc ions from an alkaline aqueous bath solution stored in a system tank for the surface treatment of metal components that have surfaces of zinc, in series, the alkaline aqueous bath solution containing a) at least 50 mg/kg of iron ions; b) at least 50 mg/kg of zinc ions; and c) a complexing agent Y in the form of water-soluble condensed phosphates and/or in the form of water-soluble organic compounds which have at least one functional group selected from -OPO 3 X 2/n and/or -PO 3 X 2/n, where X is either a hydrogen atom or an alkali and/or alkaline-earth metal atom having the particular valence n; the molar ratio of complexing agent Y based on the element phosphorus to the total amount of iron ions and zinc ions being greater than 1.0, characterized in that part of the bath solution is brought into contact with an ion exchange resin which carries functional groups selected from -OPO 3 X 2/n and/or -PO 3 X 2/n, where X is either a hydrogen atom or an alkali and/or alkaline-earth metal atom to be exchanged and having the particular valence n. a) at least 50 mg/kg of iron ions; b) at least 50 mg/kg of zinc ions; and c) a complexing agent Y in the form of water-soluble condensed phosphates and/or in the form of water-soluble organic compounds which have at least one functional group selected from -OPO 3 X 2/n and/or -PO 3 X 2/n, where X is either a hydrogen atom or an alkali and/or alkaline-earth metal atom having the particular valence n;
A compound consisting of one or more peptides consisting of the following general structure A - L1 - B - L2 - C wherein A corresponds to a first amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, B corresponds to a second amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, C corresponds to a third amino acid sequence that is derived from αD or αB alpha helical region of human IL-4, or αD alpha helical region of human IL-13, L1 and L2 correspond to 1 to 10 linking amino acids, wherein A corresponds to the amino acids WNR, B corresponds to the amino acids EIIKT, C corresponds to the amino acids KTIMREKY, or A corresponds to the amino acids LMR, B corresponds to the amino acids ELIEELVNIT, C corresponds to the amino acids FVKDLLLHLKK, or A corresponds to the amino acids EIIKT, B corresponds to the amino acids RLDRNLWG, C corresponds to the amino acids RAATVLRQFYS, wherein said peptide is capable of stimulating neuronal axon outgrowth and has no side effect on lymphocytes or bone marrow-derived macrophages. A corresponds to a first amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, B corresponds to a second amino acid sequence that is derived from αA or αC alpha helical region of human IL-4 or IL-13, C corresponds to a third amino acid sequence that is derived from αD or αB alpha helical region of human IL-4, or αD alpha helical region of human IL-13, L1 and L2 correspond to 1 to 10 linking amino acids, A corresponds to the amino acids WNR, B corresponds to the amino acids EIIKT, C corresponds to the amino acids KTIMREKY, or A corresponds to the amino acids LMR, B corresponds to the amino acids ELIEELVNIT, C corresponds to the amino acids FVKDLLLHLKK, or A corresponds to the amino acids EIIKT, B corresponds to the amino acids RLDRNLWG, C corresponds to the amino acids RAATVLRQFYS,
A processor comprising: a decoder (140, 314) to decode an instruction to configure a cache line to indicate all zeros; an execution unit, coupled to the decoder and responsive to the decode of the instruction, to issue a write command to initiate a cache line sized write of zeros at a memory address; a coherent cache, coupled to the execution unit, to receive the write command, to determine whether there is a hit in the coherent cache responsive to the write command, to determine whether a cache coherency protocol state of the hit cache line is a modified state or an exclusive state to configure a cache line to indicate all zeros when the cache coherency protocol state is the modified state or the exclusive state, and to issue the write command toward an interconnect when there is a miss responsive receiving to the write command; the processor further comprising the interconnect, wherein the interconnect, responsive to receipt of the write command, is configured to issue a snoop to each of a plurality of other coherent caches for which it must be determined if there is a hit, wherein the interconnect, or the execution unit responsive to a message from the interconnect, is configured to cause a cache line in one of the coherent caches to indicate all zeros when the write command and the snoop did not cause the cache line sized write of zeros to be performed. a decoder (140, 314) to decode an instruction to configure a cache line to indicate all zeros; an execution unit, coupled to the decoder and responsive to the decode of the instruction, to issue a write command to initiate a cache line sized write of zeros at a memory address; a coherent cache, coupled to the execution unit, to receive the write command, to determine whether there is a hit in the coherent cache responsive to the write command, to determine whether a cache coherency protocol state of the hit cache line is a modified state or an exclusive state to configure a cache line to indicate all zeros when the cache coherency protocol state is the modified state or the exclusive state, and to issue the write command toward an interconnect when there is a miss responsive receiving to the write command; the processor further comprising the interconnect, wherein the interconnect, responsive to receipt of the write command, is configured to issue a snoop to each of a plurality of other coherent caches for which it must be determined if there is a hit, wherein the interconnect, or the execution unit responsive to a message from the interconnect, is configured to cause a cache line in one of the coherent caches to indicate all zeros when the write command and the snoop did not cause the cache line sized write of zeros to be performed.
A transmitting station comprising: a transmitting antenna whose orientation direction is changeable, the transmitting antenna emitting a signal in an orientation direction of the antenna; and a control unit to control the orientation direction of the transmitting antenna in accordance with an orientation direction of the transmitting antenna determined together with receiving stations to receive data transmitted from the transmitting antenna, on a basis of estimate values of received signal quality at candidates for receiving stations to receive data transmitted from the transmitting antenna, wherein the transmitting station holds a table of two types of change patterns, the change patterns being a first code modulation pattern (#0) and a second code modulation pattern (#1); the first code modulation pattern corresponds to a first group of receiving stations in which a reception-quality estimation value is determined by an elevation angle of the transmitting station; the second code modulation pattern corresponds to a second group of receiving stations in which a reception-quality estimation value is determined by the elevation angle; each of the first code modulation pattern and the second code modulation pattern contains indices representing encoding schemes and modulation schemes according to the elevation angle; and the transmitting station determines an encoding scheme and a modulation scheme on the basis of the table, the elevation angle and information on which change pattern to use. a transmitting antenna whose orientation direction is changeable, the transmitting antenna emitting a signal in an orientation direction of the antenna; and a control unit to control the orientation direction of the transmitting antenna in accordance with an orientation direction of the transmitting antenna determined together with receiving stations to receive data transmitted from the transmitting antenna, on a basis of estimate values of received signal quality at candidates for receiving stations to receive data transmitted from the transmitting antenna, wherein the transmitting station holds a table of two types of change patterns, the change patterns being a first code modulation pattern (#0) and a second code modulation pattern (#1); the first code modulation pattern corresponds to a first group of receiving stations in which a reception-quality estimation value is determined by an elevation angle of the transmitting station; the second code modulation pattern corresponds to a second group of receiving stations in which a reception-quality estimation value is determined by the elevation angle; each of the first code modulation pattern and the second code modulation pattern contains indices representing encoding schemes and modulation schemes according to the elevation angle; and the transmitting station determines an encoding scheme and a modulation scheme on the basis of the table, the elevation angle and information on which change pattern to use.
Motor vehicle tailgate comprising a plastic box structure comprising at least one structural element (16, 17) supporting a rear screen, the structural element being elongated in a "longitudinal" direction, characterised in that the structural element (16, 17) delimits, with the rear screen, a housing (14, 74) comprising an interior opening, the interior opening being closed by means of a lining (22, 72) which is attached so as to form at least partially a longitudinal wall of the housing, adjacent to the rear screen and arranged towards the inside of the rear screen, in such a way that the housing houses an electrical element (32, 33, 34, 80) of the vehicle.
Airbag system for a vehicle comprising: - an airbag chute module which forms a guide to direct an airbag deployment and which includes a first attachment portion to a cross-car beam of the vehicle and a second attachment portion (32, 34) to an airbag receiving module, - a reinforcement body including first attachment means (62, 64) adapted to attach the reinforcement body to the cross-car beam of the vehicle and second attachment means (54, 56) adapted to attach the reinforcement body to the airbag chute module, wherein: the second attachment portion (32, 34) of the airbag chute module includes two attachment bodies (32, 34) to the airbag receiving module which are respectively arranged on two opposite side walls (32, 34) of the airbag chute module, the second attachment means (54, 56) of the reinforcement body include two bodies (54, 56) which respectively cover the two attachment bodies (32, 34) of the airbag chute module, and the first attachment means (62, 64) of the reinforcement body cover the first attachment portion of the airbag chute module and the second attachment means (54, 56) of the reinforcement body cover the second attachment portion (32, 34) of the airbag chute module. - an airbag chute module which forms a guide to direct an airbag deployment and which includes a first attachment portion to a cross-car beam of the vehicle and a second attachment portion (32, 34) to an airbag receiving module, - a reinforcement body including first attachment means (62, 64) adapted to attach the reinforcement body to the cross-car beam of the vehicle and second attachment means (54, 56) adapted to attach the reinforcement body to the airbag chute module, the second attachment portion (32, 34) of the airbag chute module includes two attachment bodies (32, 34) to the airbag receiving module which are respectively arranged on two opposite side walls (32, 34) of the airbag chute module, the second attachment means (54, 56) of the reinforcement body include two bodies (54, 56) which respectively cover the two attachment bodies (32, 34) of the airbag chute module, and the first attachment means (62, 64) of the reinforcement body cover the first attachment portion of the airbag chute module and the second attachment means (54, 56) of the reinforcement body cover the second attachment portion (32, 34) of the airbag chute module.
A fluidizing composition comprising at least one superplasticizer chosen from polycarboxylate ether polymers, characterized in that it comprises from 1 to 20 parts by weight, of at least one aromatic hydrocarbon sulfonic acid or one of its salts chosen from alkali salts, alkaline-earth salts or one of their mixtures, for 100 parts by weight of superplasticizer, said superplasticizer representing at least 40%, by weight, relative to the total weight of the dry fluidizing composition.
A method of obtaining vertical alignment of a support member suitable for carrying an equipment unit such as a wind turbine or the like, and which is configured for connection to a foundation installed on a seabed, the method comprising the step of: a) measuring the foundation's angle of inclination (α); the method further being characterized by the steps of: b) transferring the angle of inclination (α) to a first end of the support member; c) forming an end piece on the support member first end, the end piece having an angular orientation with respect to the support member longitudinal axis (y) which corresponds to the angle of inclination (α), and d) installing the support member via its first end to the foundation; whereby the support member assumes a vertical orientation. a) measuring the foundation's angle of inclination (α); the method further being characterized by the steps of: b) transferring the angle of inclination (α) to a first end of the support member; c) forming an end piece on the support member first end, the end piece having an angular orientation with respect to the support member longitudinal axis (y) which corresponds to the angle of inclination (α), and d) installing the support member via its first end to the foundation; whereby the support member assumes a vertical orientation.
A spray head for a fluid dispenser device, said spray head comprising a body that defines an expulsion channel that is terminated by a dispenser orifice, an insert being arranged in said expulsion channel, the end of said insert that is downstream in the flow direction of the fluid co-operating with the downstream end portion of said expulsion channel to define a spray profile, said insert including an elastically-deformable portion that is adapted to deform so as to absorb and/or compensate variations in the dimensions of said body and/or in said insert, and/or so as to compensate deformations and/or movements of said insert in said body, the spray head being characterized in that said elastically-deformable portion of the insert comprises two sloping strips of deformable material that form an X-shape.
An expanded thermoplastic polyurethane beads molded article that is an in-mold molded article of expanded thermoplastic polyurethane beads containing a colorant, characterized in that the average surface cell wall thickness of the molded article, determined according to the method as defined in the specification, is 20 μm or more.
Safety valve including: - a tube intended to be fixed to a watch case, - a hollow head mounted for rotation about the tube and provided with a shaft extending into its hollow portion, - a first element (8; 16) fixedly mounted with respect to the head and - a second element (5; 17) integral with the head and capable of moving relative to the first element, characterized in that the first element and the second element each include one or more passages (12, 13) allowing gas to flow, the rotational motion of the head allowing the passages (12, 13) of the first element and of the second element to be placed in communication for gas to escape from the interior to the exterior of the case in the event of overpressure inside the case or, conversely, allowing the passages (12, 13) of the first element and of the second element to be moved out of alignment to prevent gas escaping. - a tube intended to be fixed to a watch case, - a hollow head mounted for rotation about the tube and provided with a shaft extending into its hollow portion, - a first element (8; 16) fixedly mounted with respect to the head and - a second element (5; 17) integral with the head and capable of moving relative to the first element, characterized in that the first element and the second element each include one or more passages (12, 13) allowing gas to flow, the rotational motion of the head allowing the passages (12, 13) of the first element and of the second element to be placed in communication for gas to escape from the interior to the exterior of the case in the event of overpressure inside the case or, conversely, allowing the passages (12, 13) of the first element and of the second element to be moved out of alignment to prevent gas escaping.
An injection moulded acoustic filter comprising a filter structure (11,81) formed by a foil piece or three dimensional structure, wherein the filter structure (11,81) is characterized by having openings formed as micro-slits configured to act as acoustic channels through the filter structure (11,81) for filtering sound waves impinging the filter structure (11,81), wherein the openings formed as micro-slits have a maximum slit width (Ws) across a surface of the filter structure (11,81) of less than one hundred micrometer, and a combined total slit length of the micro-slits along the surface of the filter structure (11,81) of at least five millimetres.
A non-aerosol two-layer separate type hair cosmetic composition, comprising components and at a mass ratio of / of from 0.2 to 10: a silicone with a number-average degree of polymerization of from 300 to 20,000 having a number-average particle diameter of from 0.05 to 20 μm, selected from the group consisting of dimethicone, dimethiconol, and amino-modified silicone and in an amount of from 0.1 to 6 mass% a water-soluble cationic polymer with a weight-average molecular weight of from 50,000 to 1,000,000, selected from the group consisting of polyquaternium-6, polyquaternium-7, polyquaternium-16, and polyquaternium-22, wherein the composition consists of an oil-in-water emulsion layer and an aqueous layer. a silicone with a number-average degree of polymerization of from 300 to 20,000 having a number-average particle diameter of from 0.05 to 20 μm, selected from the group consisting of dimethicone, dimethiconol, and amino-modified silicone and in an amount of from 0.1 to 6 mass% a water-soluble cationic polymer with a weight-average molecular weight of from 50,000 to 1,000,000, selected from the group consisting of polyquaternium-6, polyquaternium-7, polyquaternium-16, and polyquaternium-22,
A method for producing a condenser in a gravity loop heat pipe heat sink, comprising the following steps: squeezing (A11, SA21) a base material of a condenser to form a condenser substrate and several longitudinal channels of the condenser, wherein the longitudinal channels of the condenser are parallel to and thread through the condenser substrate, and the longitudinal channels of the condenser are configured to condense vapour; drilling (SB11, SB21) holes at the two ends of the condenser substrate to form transverse channels of the condenser that are connected to the longitudinal channels of the condenser, wherein the transverse channels of the condenser at the two ends respectively support circulation of vapour and liquid that is formed after vapour is condensed; and sealing (SC11, SC21) ends of the longitudinal channels of the condenser and ends of the transverse channels of the condenser according to determined holes on the condenser that are connected to the outside; and milling substrate materials between the longitudinal channels of the condenser, so that a gap exists between adjacent longitudinal channels of the condenser. squeezing (A11, SA21) a base material of a condenser to form a condenser substrate and several longitudinal channels of the condenser, wherein the longitudinal channels of the condenser are parallel to and thread through the condenser substrate, and the longitudinal channels of the condenser are configured to condense vapour; drilling (SB11, SB21) holes at the two ends of the condenser substrate to form transverse channels of the condenser that are connected to the longitudinal channels of the condenser, wherein the transverse channels of the condenser at the two ends respectively support circulation of vapour and liquid that is formed after vapour is condensed; and sealing (SC11, SC21) ends of the longitudinal channels of the condenser and ends of the transverse channels of the condenser according to determined holes on the condenser that are connected to the outside; and milling substrate materials between the longitudinal channels of the condenser, so that a gap exists between adjacent longitudinal channels of the condenser.