mhurhangee/ep-ind-claims huggingface dataset:
A bonding wire for a semiconductor device, the bonding wire comprising: a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, wherein when measuring crystal orientations on a cross-section of the core material in a direction perpendicular to a wire axis of the bonding wire, a crystal orientation <100> angled at 15 degrees or less to a wire axis direction has a proportion of 30% or more among crystal orientations in the wire axis direction, an average crystal grain size in the cross-section of the core material in the direction perpendicular to the wire axis of the bonding wire is 0.9 μm or more and 1.5 μm or less, and the bonding wire contains one or more elements selected from Ga and Ge, and a concentration of the elements in total is 0.011 to 1.5% by mass relative to the entire wire. a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, wherein when measuring crystal orientations on a cross-section of the core material in a direction perpendicular to a wire axis of the bonding wire, a crystal orientation <100> angled at 15 degrees or less to a wire axis direction has a proportion of 30% or more among crystal orientations in the wire axis direction, an average crystal grain size in the cross-section of the core material in the direction perpendicular to the wire axis of the bonding wire is 0.9 μm or more and 1.5 μm or less, and the bonding wire contains one or more elements selected from Ga and Ge, and a concentration of the elements in total is 0.011 to 1.5% by mass relative to the entire wire.
An electromechanical actuator, EMA, (100, 200), comprising: a rotor comprising a magnet configured to rotate about an axis; a stator electromagnetically coupled to the magnet, the rotor configured to move axially relative to the stator; a ball nut (116, 216) having an annular geometry centered about the axis; a dual ball screw (110, 210) disposed radially inward from the ball nut and configured to rotate about the axis, the dual ball screw (110, 210) mechanically coupled to the ball nut; and an inner ball screw (112, 212) disposed radially inward from the ball nut and configured to rotate about the axis, the inner ball screw (112, 212) mechanically coupled to the dual ball screw; a puck (114, 214) coupled to the inner ball screw, wherein the inner ball screw is configured to stop rotating in response to the puck contacting a mechanical load member (120, 220); and characterized by comprising a spring coupled to the inner ball screw (112, 212) and configured to position the inner ball screw (112, 212) axially relative to the rotor and configured to provide a force to translate the inner ball screw (112, 212) axially towards the mechanical load member during use of the EMA. a rotor comprising a magnet configured to rotate about an axis; a stator electromagnetically coupled to the magnet, the rotor configured to move axially relative to the stator; a ball nut (116, 216) having an annular geometry centered about the axis; a dual ball screw (110, 210) disposed radially inward from the ball nut and configured to rotate about the axis, the dual ball screw (110, 210) mechanically coupled to the ball nut; and an inner ball screw (112, 212) disposed radially inward from the ball nut and configured to rotate about the axis, the inner ball screw (112, 212) mechanically coupled to the dual ball screw; a puck (114, 214) coupled to the inner ball screw, wherein the inner ball screw is configured to stop rotating in response to the puck contacting a mechanical load member (120, 220); and characterized by comprising a spring coupled to the inner ball screw (112, 212) and configured to position the inner ball screw (112, 212) axially relative to the rotor and configured to provide a force to translate the inner ball screw (112, 212) axially towards the mechanical load member during use of the EMA.
A system comprising: at least one computing device (102, 110, 114) adapted to control a power generation system (140, 500, 600) to adjust a temperature of an operational steam in said power generation system (140, 500, 600), the system comprising means for obtaining operational data including a temperature of components of a steam turbine in the power generation system and a set of current ambient conditions, the system controlling the power generation system to adjust a temperature of operational steam by performing actions comprising: obtaining operational data from the means for obtaining operational data, including operational data about components of a steam turbine in the power generation system (140, 500, 600), the operational data including a temperature of the components and a set of current ambient conditions at the power generation system (140, 500, 600); the means for obtaining operational data including at least a component sensor and an ambient sensor and the actions comprising: obtaining the operational data from said sensors (142, 146), determining an allowable operational steam temperature range for the steam turbine based upon the operational data; generating emissions predictions (E1, E2, E3, OETM) for a set of temperatures within the allowable steam temperature range; and controlling the power generation system to adjust the temperature of the operational steam based upon the emissions predictions (E1, E2, E3, OETM). obtaining operational data from the means for obtaining operational data, including operational data about components of a steam turbine in the power generation system (140, 500, 600), the operational data including a temperature of the components and a set of current ambient conditions at the power generation system (140, 500, 600); the means for obtaining operational data including at least a component sensor and an ambient sensor and the actions comprising: obtaining the operational data from said sensors (142, 146), determining an allowable operational steam temperature range for the steam turbine based upon the operational data; generating emissions predictions (E1, E2, E3, OETM) for a set of temperatures within the allowable steam temperature range; and controlling the power generation system to adjust the temperature of the operational steam based upon the emissions predictions (E1, E2, E3, OETM). obtaining the operational data from said sensors (142, 146), determining an allowable operational steam temperature range for the steam turbine based upon the operational data; generating emissions predictions (E1, E2, E3, OETM) for a set of temperatures within the allowable steam temperature range; and controlling the power generation system to adjust the temperature of the operational steam based upon the emissions predictions (E1, E2, E3, OETM).
The use of a monophenol or benzenediol compound selected from the group consisting of phenol, catechol, hydroquinone, 4-tertiary butylphenol, 4-tertiary amylphenol, 4-tertiarybutylcatcchol, monomethyl ether of hydroquinone, monoethyl ether of hydroquinone, 4-tertiary amylphenol, monobenzyl ether of hydroquinone, 4-phenylphenol, 4-octylphenol, 4-nonylphenol, 4-isopropylcatechol, 4-methylcatechol, p-cresol, 1,2-benzenediol, butylated hydroxyanisole, butylated hydroxytoluene, 4-S-cysteaminylphenol, or a sulfhydryl selected from cysteamine, β-mercaptoethylamine hydrochloride, N-(2-mercaptoethyl)-dimethylamine hydrochloride, sulfanolic acid, cystamine dihydrochloride, and 3-mercaptopropylamine hydrochloride for the manufacture of a medicament for the treatment of a disease selected from a malignancy exhibiting tyrosinase enzyme activity, a pre-melanoma lesion, a congenital melanocytic nevus (e.g. Giant Hairy nevus), a melanocytic nevus e.g an atypical or dysplastic nevus, a cellular blue nevus and Becker's nevus, wherein said monophenol or benzenediol compound is applied topically, and in combination with said use, the use of a further compound for the manufacture of a medicament in the treatment of said disease, wherein said further compound is administered systemically or topically, said further compound being selected from the group consisting of - an immune modifying compounds selected from the group consisting of imiquimod, resiquimod, interleukins, interferons, TLR activating adjuvants, chemokines, CD40 ligands or activating antibodies, - an immunogenic adjuvant to stimulate a local inflammatory response selected from the group consisting of LPS, lipid A, peptidoglycans, flagellins, dsRNA, ssRNA, CpG DNA and Pam3Cys, and - a compound capable of inhibiting regulatory T cells selected from the group consisting of fludarabine, cyclophosphamide and compounds capable of enhancing T cell activation by blocking CTLA4. - an immune modifying compounds selected from the group consisting of imiquimod, resiquimod, interleukins, interferons, TLR activating adjuvants, chemokines, CD40 ligands or activating antibodies, - an immunogenic adjuvant to stimulate a local inflammatory response selected from the group consisting of LPS, lipid A, peptidoglycans, flagellins, dsRNA, ssRNA, CpG DNA and Pam3Cys, and - a compound capable of inhibiting regulatory T cells selected from the group consisting of fludarabine, cyclophosphamide and compounds capable of enhancing T cell activation by blocking CTLA4.
A method for managing one-to-one short data service, SDS, communication in a mission critical data, MCData, communication system, by a MCData user equipment, UE, the method comprising: identifying, a presence of allow-to-transmit data; identifying a size of payload of a one-to-one standalone SDS message; and transmitting the one-to-one standalone SDS message to a receiving MCData UE using a signaling control plane or a media plane, wherein the size of the payload of the one-to-one standalone SDS message is not greater than maximum amount of data in a single request, and wherein the transmitting the one-to-one standalone SDS message comprises: in case that the size of the payload is less than or equal to maximum payload size associated with a signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the signaling control plane, and in case that the size of the payload is greater than the maximum payload size associated with the signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the media plane. identifying, a presence of allow-to-transmit data; identifying a size of payload of a one-to-one standalone SDS message; and transmitting the one-to-one standalone SDS message to a receiving MCData UE using a signaling control plane or a media plane, wherein the size of the payload of the one-to-one standalone SDS message is not greater than maximum amount of data in a single request, and wherein the transmitting the one-to-one standalone SDS message comprises: in case that the size of the payload is less than or equal to maximum payload size associated with a signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the signaling control plane, and in case that the size of the payload is greater than the maximum payload size associated with the signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the media plane. in case that the size of the payload is less than or equal to maximum payload size associated with a signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the signaling control plane, and in case that the size of the payload is greater than the maximum payload size associated with the signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the media plane.
A mirror adjustment unit for an exterior mirror of a motor vehicle, comprising a base frame which is connectable with a motor vehicle and a mirror support for supporting a mirror element, which mirror support is connected rotatably relative to the base frame via an adjusting mechanism (14a, 14b), wherein the adjusting mechanism (14a, 14b) is provided with a first electrically energizable driving device for rotating the mirror support relative to the base frame with respect to a first axis, and with a second electrically energizable driving device for rotating the mirror support relative to the base frame with respect to a second axis, wherein the second axis is at least approximately perpendicular to the first axis, wherein the first driving device is provided with a first electrical connector arranged on the base frame for electrical connection of the first driving device with an onboard network of a motor vehicle to which the base frame is connectable, and wherein the second driving device is provided with a second electrical connector arranged on the base frame for electrical connection of the second driving device with the onboard network, wherein the mirror adjustment unit further comprises a third electrical connector for electrical connection of an electrically energizable view assist device with the onboard network, which electrically energizable view assist device is arranged on the adjusting mechanism (14a, 14b) or is arranged on the mirror element to be supported by the mirror support, wherein the third electrical connector is placed between, and electrically connected with, on one side, the first and second electrical connectors (17, 18) and, on the other side, the electrically energizable view assist device, characterized in that the first electrically energizable driving device comprises a first motor with a first electrically conductive motor casing and/or the second electrically energizable driving device comprises a second motor with a second electrically conductive motor casing, wherein the first and/or second motor casing (25, 26) is electrically connected with the first and second electrical connector (17, 18), respectively, and wherein the third electrical connector comprises the first and/or second motor casing (25, 26).
A coated metal sheet comprising: a metal sheet, and an overcoat coating film disposed on the metal sheet, wherein the overcoat coating film comprises a resin component, as the main component, comprising fluorine resin and acrylic resin, a gloss adjusting agent which is composed solely of silica particles having micropores which open to a surface of the silica particles and a matting agent which is primary particles having no micropores, a mass ratio between fluorine resin and acrylic resin is 50:50 to 85:15, a content of the gloss adjusting agent in the overcoat coating film is from 0.01 to 15vol%, a content of the matting agent in the overcoat coating film is from 0.01 to 15vol%, and the coated metal sheet satisfies the following equations: D 1 97.5 / T ≤ 0.9 Ru ≤ 1.2 ⁢ T R 1 ≥ 1.0 0.5 ≤ D 2 97.5 / T ≤ 7.0 3 ≤ T ≤ 40 wherein R1 (μm) is a number average particle diameter of the gloss adjusting agent, T (μm) is a film thickness of the overcoat coating film, D1 97.5 (μm) is a 97.5% particle diameter in an accumulated particle size distribution of the gloss adjusting agent based on the number of particles, D2 97.5 (μm) is a 97.5% particle diameter in an accumulated particle size distribution of the matting agent based on the number of particles, and Ru (μm) is an upper limit particle diameter in a number particle size distribution of the gloss adjusting agent. a metal sheet, and an overcoat coating film disposed on the metal sheet, wherein the overcoat coating film comprises a resin component, as the main component, comprising fluorine resin and acrylic resin, a gloss adjusting agent which is composed solely of silica particles having micropores which open to a surface of the silica particles and a matting agent which is primary particles having no micropores, a mass ratio between fluorine resin and acrylic resin is 50:50 to 85:15, a content of the gloss adjusting agent in the overcoat coating film is from 0.01 to 15vol%, a content of the matting agent in the overcoat coating film is from 0.01 to 15vol%, and the coated metal sheet satisfies the following equations: D 1 97.5 / T ≤ 0.9 Ru ≤ 1.2 ⁢ T R 1 ≥ 1.0 0.5 ≤ D 2 97.5 / T ≤ 7.0 3 ≤ T ≤ 40 wherein R1 (μm) is a number average particle diameter of the gloss adjusting agent, T (μm) is a film thickness of the overcoat coating film, D1 97.5 (μm) is a 97.5% particle diameter in an accumulated particle size distribution of the gloss adjusting agent based on the number of particles, D2 97.5 (μm) is a 97.5% particle diameter in an accumulated particle size distribution of the matting agent based on the number of particles, and Ru (μm) is an upper limit particle diameter in a number particle size distribution of the gloss adjusting agent.
A method for moving a stack of flat laminar products via a carrying device which has a support part, which is positioned above the stack, and has a strap, which is securable to the support part, the method comprising: guiding the strap around the stack on a lower face; and securing the strap to the support part; pressing the support part against the stack by tensioning the strap; lifting the stack, which is surrounded by the strap on the lower face; placing the stack on a target storage area; and releasing the strap from the stack, wherein the strap is gripped by a gripping device and is drawn from a strap storage spool that is mounted on the support part and the strap is placed around the stack, and wherein the strap is wound onto the strap storage spool for tensioning. guiding the strap around the stack on a lower face; and securing the strap to the support part; pressing the support part against the stack by tensioning the strap; lifting the stack, which is surrounded by the strap on the lower face; placing the stack on a target storage area; and releasing the strap from the stack, wherein the strap is gripped by a gripping device and is drawn from a strap storage spool that is mounted on the support part and the strap is placed around the stack, and wherein the strap is wound onto the strap storage spool for tensioning.
A method for culturing a microorganism, the method comprising adding an emulsion for microbial growth comprising a lipid, a phosphate, and a protein to a medium, wherein the lipid has a free fatty acid content of 30% or more, and wherein the lipid content in the emulsion for microbial growth is 3 to 70%, wherein the protein is a lactoprotein, and wherein the lactoprotein is added at a concentration of 0.01 to 10% by weight based on the amount of the lipid.
Catalytic cracking riser reactor extending between an inlet for hydrocarbonaceous feed and catalyst particles and an outlet for discharging cracked products and spent catalyst particles, which riser reactor has been provided with an internal refractory lining and at least one contacting device wherein the contacting device comprises a composite of refractory material and a metal structure, which metal structure has the shape of a multi-toothed fork and which metal structure is fastened to the outer wall of the riser reactor by means of a metal support strip.
A node comprising: a flow table, a table management unit configured to manage the flow table; and a packet processing unit configured to perform packet processing with respect to a received packet within a sequence of packets that are part of a message, wherein each flow entry that is set in said flow table specifies said packet processing which is performed with respect to a packet matching a match condition, wherein a flow entry that said received packet matches is a hit entry, wherein if said hit entry exists in said flow table, said packet processing unit is adapted to perform said packet processing specified by said hit entry with respect to said received packet, wherein if a deletion condition with regard to a first flow entry in said flow table is satisfied, said table management unit is adapted to delete said first flow entry from said flow table, and wherein said deletion condition includes that a sum of packet lengths of all the received packets matching said first flow entry after said first flow entry is set up exceeds a predetermined deletion unit length that depends on the message length of the message to be processed. a flow table, a table management unit configured to manage the flow table; and a packet processing unit configured to perform packet processing with respect to a received packet within a sequence of packets that are part of a message, wherein each flow entry that is set in said flow table specifies said packet processing which is performed with respect to a packet matching a match condition, wherein a flow entry that said received packet matches is a hit entry, wherein if said hit entry exists in said flow table, said packet processing unit is adapted to perform said packet processing specified by said hit entry with respect to said received packet, wherein if a deletion condition with regard to a first flow entry in said flow table is satisfied, said table management unit is adapted to delete said first flow entry from said flow table, and wherein said deletion condition includes that a sum of packet lengths of all the received packets matching said first flow entry after said first flow entry is set up exceeds a predetermined deletion unit length that depends on the message length of the message to be processed.
A method for producing an aluminum foil, wherein an aluminum film is formed on a surface of a substrate by electrolysis using a plating solution at least containing a dialkyl sulfone, an aluminum halide, and at least one nitrogen-containing compound selected from the group consisting of an ammonium halide, a hydrogen halide salt of a primary amine, a hydrogen halide salt of a secondary amine, a hydrogen halide salt of a tertiary amine, and a quaternary ammonium salt represented by a general formula: R 1 R 2 R 3 R 4 N▪X (wherein R 1 to R 4 independently represent an alkyl group and X represents a counteranion for the quaternary ammonium cation), wherein, per 10 mol of dialkyl sulfone, the amount of aluminum halide is 1.5 to 4.0 mol and the amount of nitrogen-containing compound is 0.01 to 2.0 mol, and the film is then removed from the substrate.
A process for the regeneration of a spent alkaline solution used in a unit for the extraction of sulphur-containing compounds from a hydrocarbon cut, comprising the following series of steps: a) sending the spent alkaline solution to be regenerated to an oxidation reactor in which it is brought into contact with an oxidizing agent and a catalyst, and optionally with a hydrocarbon cut, said spent alkaline solution having been heated to a temperature in the range 40°C to 50°C, and in which the rise in temperature is controlled by a cooling means constituted by an excess alkaline solution sent directly to said reactor, at one or more points, b) sending the effluents from the oxidation reactor to a separator from which a hydrocarbon phase which is rich in disulphides and a partially regenerated alkaline solution are extracted, c) cooling the partially regenerated alkaline solution obtained from step b) to a temperature of 45°C or less. a) sending the spent alkaline solution to be regenerated to an oxidation reactor in which it is brought into contact with an oxidizing agent and a catalyst, and optionally with a hydrocarbon cut, said spent alkaline solution having been heated to a temperature in the range 40°C to 50°C, and in which the rise in temperature is controlled by a cooling means constituted by an excess alkaline solution sent directly to said reactor, at one or more points, b) sending the effluents from the oxidation reactor to a separator from which a hydrocarbon phase which is rich in disulphides and a partially regenerated alkaline solution are extracted, c) cooling the partially regenerated alkaline solution obtained from step b) to a temperature of 45°C or less.