mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for use in preventing or treating cancer comprising a compound represented by formula 1 below, a stereoisomer thereof, a solvate thereof, a hydrate thereof, or a pharmaceutically acceptable salt thereof as an active ingredient:
Steam generator with a hot gas path comprising: - a superheater , which has a superheater output to deliver a flow of hot steam and - at least four heat exchangers (11B-11F) and - an economizer and - a distribution piping , wherein the superheater and the heat exchangers (11B-11F) and the economizer are connected in series and each comprises a fluid input and at least one fluid distribution pipe and several heat exchange tubes arranged inside the hot gas path and at least one collection pipe and a fluid output , wherein the economizer input is connected with a source of cold fluid , characterized in that at the superheater output and in the connection between the superheater and a first heat exchanger and in each connection between one heat exchanger (11B-11E) and the respective next heat exchanger (11C- 11F) of the at least four heat exchangers (11B-11F) at least one attemperator is arranged, wherein the distribution piping is connected with the source of cold fluid and with the economizer output and via respective valves with each of the attemperators . - a superheater , which has a superheater output to deliver a flow of hot steam and - at least four heat exchangers (11B-11F) and - an economizer and - a distribution piping , wherein the superheater and the heat exchangers (11B-11F) and the economizer are connected in series and each comprises a fluid input and at least one fluid distribution pipe and several heat exchange tubes arranged inside the hot gas path and at least one collection pipe and a fluid output , wherein the economizer input is connected with a source of cold fluid , characterized in that at the superheater output and in the connection between the superheater and a first heat exchanger and in each connection between one heat exchanger (11B-11E) and the respective next heat exchanger (11C- 11F) of the at least four heat exchangers (11B-11F) at least one attemperator is arranged, wherein the distribution piping is connected with the source of cold fluid and with the economizer output and via respective valves with each of the attemperators .
A method for producing single crystals of silicon carbide with a device comprising a furnace and a chamber with a crucible , the chamber being accommodated in the furnace , wherein a seed crystal and a base material containing silicon carbide is arranged in the crucible , characterized in that the base material contains a mixture of silicon carbide powder and silicon carbide lumps , - wherein the silicon carbide powder has a grain size with a value from a range of 300 μ m to 1000 μm - and the silicon carbide lumps have a grain size with a value from a range of 1 mm to 10 mm, - and that in a first, lower third of the height of the base material , silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 55% silicon carbide powder to 45% silicon carbide lumps and 70% silicon carbide powder to 30% silicon carbide lumps , - and in a second, middle third of the height of the base material , silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 40% silicon carbide powder to 60% silicon carbide lumps and 55% silicon carbide powder to 45% silicon carbide lumps , - and in a third, upper third of the height of the base material , silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 25% silicon carbide powder to 75% silicon carbide lumps and 40% silicon carbide powder to 60% silicon carbide lumps . - wherein the silicon carbide powder has a grain size with a value from a range of 300 μ m to 1000 μm - and the silicon carbide lumps have a grain size with a value from a range of 1 mm to 10 mm, - and that in a first, lower third of the height of the base material , silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 55% silicon carbide powder to 45% silicon carbide lumps and 70% silicon carbide powder to 30% silicon carbide lumps , - and in a second, middle third of the height of the base material , silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 40% silicon carbide powder to 60% silicon carbide lumps and 55% silicon carbide powder to 45% silicon carbide lumps , - and in a third, upper third of the height of the base material , silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 25% silicon carbide powder to 75% silicon carbide lumps and 40% silicon carbide powder to 60% silicon carbide lumps .
A storage and beverage service installation for at least two different types of beverages under pressure, comprising: - beverage storage means ; - gas storage means ; - temperature regulation means for the beverages ; - beverage service means capable of distributing the stored beverages propelled by the gas; - piping networks connecting the means of the installation ; the gas storage means comprising several types of gas stored separately, such as carbon dioxide, nitrogen, or argon, and each beverage storage means is connected to a type of gas appropriate for the beverage to be propelled, characterized in that it comprises a gas mixer having several inputs , each connected to a type of gas , the mixer is capable of creating gas mixtures in determined proportions, each adapted to a beverage, and has several outputs capable of delivering either a gas or a gas mixture in the determined proportions, taking into account the chemistry of each beverage, to propel the corresponding beverage. - beverage storage means ; - gas storage means ; - temperature regulation means for the beverages ; - beverage service means capable of distributing the stored beverages propelled by the gas; - piping networks connecting the means of the installation ; the gas storage means comprising several types of gas stored separately, such as carbon dioxide, nitrogen, or argon, and each beverage storage means is connected to a type of gas appropriate for the beverage to be propelled, characterized in that it comprises a gas mixer having several inputs , each connected to a type of gas , the mixer is capable of creating gas mixtures in determined proportions, each adapted to a beverage, and has several outputs capable of delivering either a gas or a gas mixture in the determined proportions, taking into account the chemistry of each beverage, to propel the corresponding beverage.
A steel for hot stamping, characterized in that the steel for hot stamping in weight percentage contains C: 0.2-0.4%, Si: 0-0.8%, Al: 0.6%≤Al≤1.0%, B: 0.0005%<B ≤0.005%, Mn: 0.5-3.0%, Mo: 0-1%, Cr: 0-2%, Ni: 0-5%, V: 0-0.4%, Nb: 0-0.2%, Ti: <0.01%, and N: 0.0035%≤N<0.01%, with the balance being Fe and impurity elements such as P, S unavoidable during smelting, the steel contains no TiN particles with particle size ≥ 1 μm.
A method of forming a composite product having a patterned surface, the method comprising: providing a substrate including a porous structure, a sheet-form material, and a printed patterned sheet; the method including the step of applying the sheet-form material and the printed patterned sheet to a surface of the substrate, and applying pressure to press the printed patterned sheet and the sheet-form material to the substrate to form the composite product. a substrate including a porous structure, a sheet-form material, and a printed patterned sheet;
A light emitting device comprising: a conductive support substrate ; a bonding layer on the conductive support substrate; a light emitting structure layer on the bonding layer; a passivation layer provided on a side surface and a top surface of the light emitting structure layer; a first metal layer and an electrode structure disposed on the light emitting structure layer, wherein the electrode structure includes an outer electrode including a first part and a second part, an inner electrode provided in a region between the first part and the second part of the outer electrode and extending to electrically connect the first part of the outer electrode with the second part of the outer electrode, and a pad (115cl, 115c2) electrically connected to at least one of the first part and the second part of the outer electrode, characterized in that the first metal layer is a protection layer at a periphery portion on the bonding layer and under the passivation layer , and wherein an outer side of the outer electrode is spaced apart from an outermost side of a top of the light emitting structure layer and within 50μm from the outermost side of the top of the first conductive semiconductor layer , and wherein the first metal layer comprises at least one of Pt, Ti, W, Ni, Pd, Rh, Ir, or W. a conductive support substrate ; a bonding layer on the conductive support substrate; a light emitting structure layer on the bonding layer; a passivation layer provided on a side surface and a top surface of the light emitting structure layer; a first metal layer and an electrode structure disposed on the light emitting structure layer, wherein the electrode structure includes an outer electrode including a first part and a second part, an inner electrode provided in a region between the first part and the second part of the outer electrode and extending to electrically connect the first part of the outer electrode with the second part of the outer electrode, and a pad (115cl, 115c2) electrically connected to at least one of the first part and the second part of the outer electrode, characterized in that the first metal layer is a protection layer at a periphery portion on the bonding layer and under the passivation layer , and wherein an outer side of the outer electrode is spaced apart from an outermost side of a top of the light emitting structure layer and within 50μm from the outermost side of the top of the first conductive semiconductor layer , and wherein the first metal layer comprises at least one of Pt, Ti, W, Ni, Pd, Rh, Ir, or W.
A method for preparation of a perovskite-based oxide of the chemical formula: BaLnMn 2 O 5+δ , where Ln represents at least one element selected from the group consisting of: Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb and Lu or a mixture of elements from the group consisting of: Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu and Y, the method comprising synthesizing a perovskite precursor by a sol-gel method comprising the steps of: dissolving nitrates of respective elements in water, evaporating water to obtain a perovskite precursor, decompose excessive nitrates and oxidize carbon residues, grinding the perovskite precursor to a powdered perovskite precursor, annealing the powdered perovskite precursor in an atmosphere of 1vol.% of H 2 in Ar, at a temperature range from 1000 to 1100°C and cooling the obtained perovskite of the formula BaLaMn 2 O 5+δ , wherein the method is characterized in that it further comprises the following steps: high energy milling of the obtained perovskite of the formula BaLaMn 2 O 5+δ for 5 to 30 minutes, and activating of the material by consecutive isothermal oxidation/reduction at the temperature of 500°C in a reducing atmosphere of H 2 in Ar and in an oxidizing atmosphere of air.
Anchoring element for anchoring a fastening assembly to a C-shaped mounting rail , the anchoring element comprising an oblong metal body having opposite longer longitudinal sides and opposite shorter transversal sides , and having a top surface , wherein a pair of parallel toothings is formed in the top surface , said toothings extending substantially straight from one of the longitudinal sides to the other one of the longitudinal sides , characterised in that each of the toothings has teeth which are curved having a radius of curvature substantially parallel to the top surface of the anchoring element .
Process for purifying hydrocarbon streams comprising olefins having 2 to 8 carbon atoms, wherein the purified hydrocarbon stream is subjected to at least one process step comprising an olefin conversion selected from the group consisting of etherification, hydroformylation, oligomerization, (methoxy)carbonylation, alkylation, metathesis and epoxidation and a product separation, wherein the process employs at least two adsorbers of which one adsorber is in adsorption mode and one adsorber is in desorption mode, wherein in adsorption mode the hydrocarbon stream to be purified is passed through the adsorber to remove nitrogen-, oxygen- and/or sulfur-containing contaminants from the hydrocarbon stream to be purified, wherein in desorption mode a desorption stream is passed through the adsorber at a temperature of 280°C to 350°C to desorb the adsorbed contaminants from the adsorber, and characterized in that a hydrocarbon stream withdrawn after the at least one process step and depleted in the employed olefins and the products formed in the olefin conversion which is not hydrogenated and which has a content of the employed and unconverted olefins of 2% to 30% by weight is used as the desorption stream. wherein the process employs at least two adsorbers of which one adsorber is in adsorption mode and one adsorber is in desorption mode, wherein in adsorption mode the hydrocarbon stream to be purified is passed through the adsorber to remove nitrogen-, oxygen- and/or sulfur-containing contaminants from the hydrocarbon stream to be purified, wherein in desorption mode a desorption stream is passed through the adsorber at a temperature of 280°C to 350°C to desorb the adsorbed contaminants from the adsorber, and characterized in that a hydrocarbon stream withdrawn after the at least one process step and depleted in the employed olefins and the products formed in the olefin conversion which is not hydrogenated and which has a content of the employed and unconverted olefins of 2% to 30% by weight is used as the desorption stream.
Apparatus for converting a feed gas comprising components for reaction into a product gas , comprising at least one reactor with a reaction chamber which is provided with an inlet opening for feed gas and an outlet opening for product gas and which is bounded by the inner wall of an outer tube closed at a first outer end and the outer wall of an inner tube received coaxially in this outer tube and provided at both its outer ends with openings, which reactor is provided with an inlet chamber which is in open connection with the at least one inlet opening and with an outlet chamber in which the at least one outlet opening debouches, wherein a first wall of the outlet chamber encloses the outer tube and extends in transverse direction therefrom, characterized in that a second wall of the outlet chamber lying opposite the first wall encloses the outer tube and extends in transverse direction therefrom, and the inlet chamber is bounded by the second wall of the outlet chamber and a third wall which lies opposite this second wall , encloses the outer tube and extends in transverse direction therefrom, wherein the inlet opening is formed in the wall of the outer tube . a second wall of the outlet chamber lying opposite the first wall encloses the outer tube and extends in transverse direction therefrom, and the inlet chamber is bounded by the second wall of the outlet chamber and a third wall which lies opposite this second wall , encloses the outer tube and extends in transverse direction therefrom, wherein the inlet opening is formed in the wall of the outer tube .
A method for filling a compartment in an inner part of a container with an amount of liquid CO 2 which is partially converted into an amount of solid CO 2 upon injection of the liquid CO 2 into said compartment, said container being designed to contain one or more products loaded into it, wherein said products are to be maintained at a defined temperature, below a defined temperature, or within a defined temperature range, which temperature or temperature range is below environmental temperature, using said solid CO 2 , wherein said container is subjected to a weighing operation using weighing means resulting into a weight of said container , wherein said weight of said container , is determined by said weighing means at least before and after said container has been supplied with said amount of converted solid CO 2 , wherein said method comprises the following steps: (a) determining the weight of said container , using weighing means ; and characterized in that said method further comprises the following steps: (b) generating barcode data by scanning a barcode , provided with the container ; (c) calculating the weight of the amount of converted solid CO 2 to be supplied to said compartment in the inner part of said container , based on said barcode data, generated in step (b); (d) filling said container with an amount of liquid CO 2 , thereby monitoring the weight of the container , until the weight of the container is equal to the weight of the container , as determined in step (a), increased by the weight of the amount of converted solid CO 2 , as calculated in step (c); (e) storing in a database , the barcode data, obtained in step (b) ; and (f) storing in said database , data on the weight of the amount of converted solid CO 2 , supplied to said container , as determined in step (c). (a) determining the weight of said container , using weighing means ; (b) generating barcode data by scanning a barcode , provided with the container ; (c) calculating the weight of the amount of converted solid CO 2 to be supplied to said compartment in the inner part of said container , based on said barcode data, generated in step (b); (d) filling said container with an amount of liquid CO 2 , thereby monitoring the weight of the container , until the weight of the container is equal to the weight of the container , as determined in step (a), increased by the weight of the amount of converted solid CO 2 , as calculated in step (c); (e) storing in a database , the barcode data, obtained in step (b) ; and (f) storing in said database , data on the weight of the amount of converted solid CO 2 , supplied to said container , as determined in step (c).
An ironing shoe to be mounted to a soleplate of an iron and comprising a shoe sole , the shoe sole comprising a garment contact surface and an anti-microbial agent, wherein the shoe sole is made of a sole material comprising the anti-microbial agent or the shoe sole comprises an agent layer comprising the anti-microbial agent, the garment contact surface being a surface of the agent layer , wherein the garment contact surface is capable of transferring the anti-microbial agent to a piece of garment by surface contact between the garment contact surface comprising the anti-microbial agent of the shoe sole and the piece of garment that is ironed.
A transfer material in which a substrate sheet , a protective sheet , and a color material receiving layer are laminated in this order, characterized in that the protective sheet contains polyvinyl alcohol with an average degree of polymerization of 1,500 to 5,000.
A vehicle lower structure comprising: a battery pack stored under a floor panel , a lower frame that is a framework member provided on a bottom surface of the battery pack , and having fastening portions formed at both ends that project outward from the battery pack in a vehicle width direction, a pair of side members that are framework members, the side members being provided on both sides of the floor panel in the vehicle width direction and extending in a vehicle front-rear direction, wherein the fastening portions of the lower frame are fastened to the side members, wherein the battery pack comprises a lower-stage battery stack fixed to the lower frame , and an upper-stage battery stack mounted in an upper stage of the lower-stage battery stack , the upper-stage battery stack is separated from the lower-stage battery stack in a vehicle height direction, a reinforcing member is arranged at a height position that matches a height position of a separation space between the upper-stage battery stack and the lower-stage battery stack in the vehicle height direction, and the reinforcing member comprises a pair of transverse frames extending in the vehicle width direction and provided in the vehicle front-rear direction, and a pair of longitudinal frames connected to both ends of the pair of transverse frames in the vehicle width direction and extending in the vehicle front-rear direction, and the longitudinal frames project outward from the upper-stage battery stack in the vehicle width direction. a battery pack stored under a floor panel , a lower frame that is a framework member provided on a bottom surface of the battery pack , and having fastening portions formed at both ends that project outward from the battery pack in a vehicle width direction, a pair of side members that are framework members, the side members being provided on both sides of the floor panel in the vehicle width direction and extending in a vehicle front-rear direction, wherein the fastening portions of the lower frame are fastened to the side members, wherein the battery pack comprises a lower-stage battery stack fixed to the lower frame , and an upper-stage battery stack mounted in an upper stage of the lower-stage battery stack , the upper-stage battery stack is separated from the lower-stage battery stack in a vehicle height direction, a reinforcing member is arranged at a height position that matches a height position of a separation space between the upper-stage battery stack and the lower-stage battery stack in the vehicle height direction, and the reinforcing member comprises a pair of transverse frames extending in the vehicle width direction and provided in the vehicle front-rear direction, and a pair of longitudinal frames connected to both ends of the pair of transverse frames in the vehicle width direction and extending in the vehicle front-rear direction, and the longitudinal frames project outward from the upper-stage battery stack in the vehicle width direction.
A cylindrical tube into which an insert can be inserted, the tube comprising: a plurality of protrusions provided to protrude from an inner wall surface of the tube and to be inclined with respect to the inner wall surface, wherein each of the plurality of protrusions are provided non-parallel to each other, wherein each of the plurality of protrusions are inclined in a same direction along a circumferential direction of the tube, wherein at least one of the plurality of protrusions is provided in an arc shape gradually separated from the inner wall surface from a base end portion (14A2 to 14C2, 24A2, 64A2) to a leading end portion (14A1 to 14C1, 24B1, 24B1, 64A1).
Coffee machine comprising an infusion zone , a reservoir for storing ground coffee arranged above the infusion zone and a device for transferring ground coffee from the storage reservoir to the infusion zone through an orifice , the transfer device comprising a member for opening and closing the orifice , able to move between an open position and a closed position, characterised in that the member for opening and closing the orifice comprises an open part comprising an inclined wall configured so as to be positioned under the orifice and to direct towards the infusion zone the ground coffee passing through this orifice , in the open position, and to be offset from the orifice , in the closed position, and in that the transfer device comprises a member for cleaning said inclined wall when passing from the open position to the closed position and vice versa.