mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply circuit , comprising: a power source ; a first circuit path that provides reverse current blocking and reverse polarity protection associated with a positive terminal of the power source; a second circuit path that bypasses current blocking of the first circuit path; a third circuit path that provides reverse polarity protection associated with a negative terminal of the power source; and a bypass control circuit that controls the first and second circuit paths based on determination of a predetermined condition. a power source ; a first circuit path that provides reverse current blocking and reverse polarity protection associated with a positive terminal of the power source; a second circuit path that bypasses current blocking of the first circuit path; a third circuit path that provides reverse polarity protection associated with a negative terminal of the power source; and a bypass control circuit that controls the first and second circuit paths based on determination of a predetermined condition.
Method for treating the cams of a camshaft for a vehicle with an internal combustion engine in order to reduce the friction thereof with respect to an opposing part in a zone provided with a hard coating based on amorphous carbon of the diamond-like carbon or DLC type, these cams having a central recess, an edge surface that has a circular zone and an elongated portion forming a nose having a length defined by the maximum dimension measured from their nose to the circular zone, according to which method the cams are arranged on a support, this support is brought into a chamber that is put under vacuum in order to perform cleaning of the cams, this support is put in relative motion following a path of travel relative to a source for the vacuum deposition of a hard-coating material based on amorphous carbon of the diamond-like carbon or DLC type and these cams are removed from the support before they are assembled onto a camshaft, characterized in that , this support comprising a plurality of rods parallel to one another, that are fixed with respect to this support and distributed regularly at one and the same distance from the path of travel and being oriented perpendicularly to the direction of emission of the source of coating material when they arrive opposite this source, the cams being arranged on the support in a fixed and dense configuration the rods passing through the openings, the rods being distributed regularly along this path in such a way that the cams engaged on a rod are at least approximately in contact with the cams engaged on the nearest rods, the cams in this fixed and dense configuration are brought successively, along this path of travel, opposite the coating source with substantially identical orientations and at substantially identical distances with respect to this source, so as to deposit a coating selectively on the fractions of the edge surfaces of the cams that are oriented towards said source, over at most the nose of the cams.
Sterilized, gel-forming multi-component composition, preferably two-component composition, for forming a gel, the composition comprising or consisting of component (A), containing (i) one or more cross-linkable, preferably cationically cross-linkable, polymer(s), wherein the or one polymer is sodium alginate, (ii) water, (iii) NaCl in a range of from 0.3 to 1.2 wt.-%, based on the total weight of component (A), (iv) one or more phosphate buffer(s) and component (B), containing (a) one or more cross-linking agent(s) for cross-linking the cross-linkable polymer(s) in component (i) of component (A), preferably wherein the or one cross--linking agent is CaCl 2 , and (b) water. the composition comprising or consisting of component (A), containing (i) one or more cross-linkable, preferably cationically cross-linkable, polymer(s), wherein the or one polymer is sodium alginate, (ii) water, (iii) NaCl in a range of from 0.3 to 1.2 wt.-%, based on the total weight of component (A), (iv) one or more phosphate buffer(s) and (i) one or more cross-linkable, preferably cationically cross-linkable, polymer(s), wherein the or one polymer is sodium alginate, (ii) water, (iii) NaCl in a range of from 0.3 to 1.2 wt.-%, based on the total weight of component (A), (iv) one or more phosphate buffer(s) component (B), containing (a) one or more cross-linking agent(s) for cross-linking the cross-linkable polymer(s) in component (i) of component (A), preferably wherein the or one cross--linking agent is CaCl 2 , and (b) water. (a) one or more cross-linking agent(s) for cross-linking the cross-linkable polymer(s) in component (i) of component (A), preferably wherein the or one cross--linking agent is CaCl 2 , and (b) water.
A computer-implemented method for calibrating a printer , comprising: engaging at least one slitter (110a, 1 10b) at a first location; printing a calibration target onto a print medium ; transporting the print medium across the at least one slitter (1 10a, 110b) to cut the print medium ; determining a calibration offset based on the position of the cut on the calibration target ; receiving a print task; printing the print task using the calibration offset; characterized in that the computer-implemented method further comprising: determining a gross portion of the calibration offset; and determining a fine portion of the calibration offset. engaging at least one slitter (110a, 1 10b) at a first location; printing a calibration target onto a print medium ; transporting the print medium across the at least one slitter (1 10a, 110b) to cut the print medium ; determining a calibration offset based on the position of the cut on the calibration target ; receiving a print task; printing the print task using the calibration offset; characterized in that the computer-implemented method further comprising: determining a gross portion of the calibration offset; and determining a fine portion of the calibration offset. determining a gross portion of the calibration offset; and determining a fine portion of the calibration offset.
Method for introducing a wave winding mat into the rotor or stator of an electrical machine, in particular into a laminated stator core , with the following steps: i) providing a wave winding mat formed from one or more wave windings ; ii) providing a rotor or stator to be equipped with the wave winding mat , which has a plurality of pole teeth arranged in the circumferential direction along the inside or outside of the rotor or stator and spaced apart by interspaces , iii) introducing the wave winding into the interspaces through successive arrangement of wire sections located between the winding heads of the wave winding mat , characterized in that , before step iii), wire separation elements projecting radially beyond the pole teeth are arranged on an end face of the rotor or stator , wherein the wire separation elements have projecting contours which rest on the pole teeth and which separate the individual wire sections of the winding mat and guide them into the interspaces , wherein an insertion apparatus , in particular formed as a form shoe, is supplied in the area of the winding heads of the wave winding mat , wherein rotor or stator and insertion apparatus are moved relative to one another, and wherein the insertion apparatus has a contact surface , along which areas of the winding wires of the wave winding mat slide, are separated by the wire separation elements and pressed into the interspaces as a result of the relative movement of rotor or stator and the insertion apparatus . i) providing a wave winding mat formed from one or more wave windings ; ii) providing a rotor or stator to be equipped with the wave winding mat , which has a plurality of pole teeth arranged in the circumferential direction along the inside or outside of the rotor or stator and spaced apart by interspaces , iii) introducing the wave winding into the interspaces through successive arrangement of wire sections located between the winding heads of the wave winding mat ,
Method for decalcification of a beverage preparation machine which is blocked for the beverage preparation due to the need for decalcification determined by the machine, characterised by the step, whereby a user selects a decalcification process (S60, S100) from a number of decalcification processes (S60, S100) of the beverage preparation machine.
Method for producing a card body for a chip card , comprising the steps of: - providing a metal main body with two opposite main surfaces and a peripheral circumferential surface connecting the two main surfaces , wherein a module opening for receiving a chip module is already made in the main body or is yet to be made in a module opening zone, and - producing a slot on the circumferential surface between the two main surfaces , wherein the slot is formed from the circumferential surface up to the module opening or up to the module opening zone, and wherein an entry angle (α) of the slot at least into one of the two main surfaces is not equal to ninety degrees with respect to the main surface , characterized in that at least a region of the slot is formed in an arched shape from one main side to the other main side so that a first wall of the slot has a concave region and an opposite second wall of the slot has a convex region , wherein the convex region engages in the concave region . - providing a metal main body with two opposite main surfaces and a peripheral circumferential surface connecting the two main surfaces , wherein a module opening for receiving a chip module is already made in the main body or is yet to be made in a module opening zone, and - producing a slot on the circumferential surface between the two main surfaces , wherein the slot is formed from the circumferential surface up to the module opening or up to the module opening zone, and
A method for information configuration, the information being for transmitting a sounding reference signal, SRS, the method comprising: receiving configuration information of the SRS from a network device , the configuration information being for a terminal device to transmit the SRS in a non-connected state; and receiving from the network device information related to the configuration information , the information comprising validity information, characterized in that : the validity information comprises a validity period of the configuration information; and the configuration information is transmitted through a radio resource control, RRC, release message; wherein the configuration information comprises at least one of: an SRS-resource-related configuration, an SRS resource type, an SRS spatial-relation-information related configuration, or a path loss reference signal. receiving configuration information of the SRS from a network device , the configuration information being for a terminal device to transmit the SRS in a non-connected state; and receiving from the network device information related to the configuration information , the information comprising validity information, characterized in that : the validity information comprises a validity period of the configuration information; and the configuration information is transmitted through a radio resource control, RRC, release message; wherein the configuration information comprises at least one of: an SRS-resource-related configuration, an SRS resource type, an SRS spatial-relation-information related configuration, or a path loss reference signal. the validity information comprises a validity period of the configuration information; and the configuration information is transmitted through a radio resource control, RRC, release message; wherein the configuration information comprises at least one of: an SRS-resource-related configuration, an SRS resource type, an SRS spatial-relation-information related configuration, or a path loss reference signal.
A CO2 capture system comprised of the following features: - an intake for CO2-rich exhaust gas from a first source to a compressor and one or more outlets for a compressed, first CO2-rich gas under pressure (P) to a manifold to a shell enclosing at least parts of a combustion chamber with a wall , - where compressed air is led only to burners without mixing with the first CO2-rich gas from the compressor , - where the combustion chamber is comprised of the burners arranged to burn fuel and the compressed air supplied under pressure (P) from a fuel line and a compressed air line respectively, to form a second CO2-rich gas in burners , - where slits are provided in the wall in the combustion chamber to let in the compressed, first CO2-rich gas to mix with and cool the second CO2-rich gas formed in the burners , to a third CO2-rich exhaust gas ; - a heat exchanger arranged to operate under pressure (P) and heat exchange the hot third CO2-rich exhaust gas from the combustion chamber , and from there out via a pipe to a CO2 extraction plant , with returning CO2-poor exhaust gas from the CO2 extraction plant via a line under pressure (P), - where the returned, now heated CO2-poor exhaust gas is led via a manifold back to an expander which drives the compressor and the CO2 extraction plant , and out via an outlet . - an intake for CO2-rich exhaust gas from a first source to a compressor and one or more outlets for a compressed, first CO2-rich gas under pressure (P) to a manifold to a shell enclosing at least parts of a combustion chamber with a wall , - where compressed air is led only to burners without mixing with the first CO2-rich gas from the compressor , - where the combustion chamber is comprised of the burners arranged to burn fuel and the compressed air supplied under pressure (P) from a fuel line and a compressed air line respectively, to form a second CO2-rich gas in burners , - where slits are provided in the wall in the combustion chamber to let in the compressed, first CO2-rich gas to mix with and cool the second CO2-rich gas formed in the burners , to a third CO2-rich exhaust gas ; - a heat exchanger arranged to operate under pressure (P) and heat exchange the hot third CO2-rich exhaust gas from the combustion chamber , and from there out via a pipe to a CO2 extraction plant , with returning CO2-poor exhaust gas from the CO2 extraction plant via a line under pressure (P), - where the returned, now heated CO2-poor exhaust gas is led via a manifold back to an expander which drives the compressor and the CO2 extraction plant , and out via an outlet .
A powder container used in an image forming apparatus, the powder container comprising: a rotatable powder storage that stores therein the powder for image formation, the rotatable powder storage to rotate about a rotation axis (O); an opening on one end of the powder storage , through which a nozzle of the image forming apparatus is to be inserted; and a scooping portion to scoop up powder on an opening side, and to supply the powder to a powder receiving hole of the nozzle when the powder storage rotates, a conveying portion that conveys the powder toward the opening side in the scooping portion , wherein the scooping portion includes a scooping surface that extends inwardly from an inner wall surface of the powder storage , an inner end portion of the scooping surface extends in a rotation axis direction of the powder storage , an edge of the inner end portion is approximately parallel to the rotation axis (O), and in a cross-section perpendicular to the rotation axis (O), the scooping surface is inclined toward an upstream side in a rotation direction of the powder storage with respect to a virtual line (X) that passes through the rotation axis (O) and is tangent to the edge of the inner end portion characterized in that the conveying portion is connected to the scooping surface at a start position, and the start position of the conveying portion is in an opening range of the powder receiving hole in an axial direction. a rotatable powder storage that stores therein the powder for image formation, the rotatable powder storage to rotate about a rotation axis (O); an opening on one end of the powder storage , through which a nozzle of the image forming apparatus is to be inserted; and a scooping portion to scoop up powder on an opening side, and to supply the powder to a powder receiving hole of the nozzle when the powder storage rotates, a conveying portion that conveys the powder toward the opening side in the scooping portion , wherein the scooping portion includes a scooping surface that extends inwardly from an inner wall surface of the powder storage , an inner end portion of the scooping surface extends in a rotation axis direction of the powder storage , an edge of the inner end portion is approximately parallel to the rotation axis (O), and in a cross-section perpendicular to the rotation axis (O), the scooping surface is inclined toward an upstream side in a rotation direction of the powder storage with respect to a virtual line (X) that passes through the rotation axis (O) and is tangent to the edge of the inner end portion characterized in that the conveying portion is connected to the scooping surface at a start position, and the start position of the conveying portion is in an opening range of the powder receiving hole in an axial direction.
An electronic device , comprising: a frame , defining at least one transmission channel therein, and the transmission channel comprising a first end and a second end opposite to the first end ; a screen assembly , connected to the frame ; the screen assembly comprising a display portion and a non-display portion being connected to an edge of the display portion , and the non-display portion covering the first end ; and a proximity sensor , disposed in a receiving space defined by the frame ; wherein the proximity sensor is adjacent to the second end , and opposite to the non-display portion via the transmission channel ; the proximity sensor is configured to transmit and receive signals that passes through the transmission channel and the non-display portion ; characterized in that the frame comprises a main body and a support portion , the support portion protrudes from a side of the main body facing the receiving space ; the transmission channel is defined in the support portion , the support portion comprises a support surface connected to the main body , the non-display portion is attached to the support portion and stacked on the support surface , the first end of the transmission channel penetrates the support surface . a frame , defining at least one transmission channel therein, and the transmission channel comprising a first end and a second end opposite to the first end ; a screen assembly , connected to the frame ; the screen assembly comprising a display portion and a non-display portion being connected to an edge of the display portion , and the non-display portion covering the first end ; and a proximity sensor , disposed in a receiving space defined by the frame ; wherein the proximity sensor is adjacent to the second end , and opposite to the non-display portion via the transmission channel ; the proximity sensor is configured to transmit and receive signals that passes through the transmission channel and the non-display portion ; characterized in that the frame comprises a main body and a support portion , the support portion protrudes from a side of the main body facing the receiving space ; the transmission channel is defined in the support portion , the support portion comprises a support surface connected to the main body , the non-display portion is attached to the support portion and stacked on the support surface , the first end of the transmission channel penetrates the support surface .
A delivery system comprising: a fluid composition consisting of a perfume mixture, said perfume mixture containing one or more perfume materials, said one or more perfume materials selected from ethyl propionate, isobutyl acetate, beta gamma hexenol, alpha pinene, beta pinene, cis-hexenyl acetate, octanal, eucalyptol, ethyl acetate, and said perfume mixture containing functional perfume components selected from the group consisting of: iso-nonyl acetate, dihydro myrcenol (3-methylene-7-methyl octan- 7-ol), linalool (3-hydroxy-3, 7-dimethyl-l, 6 octadiene), geraniol (3, 7 dimethyl-2, 6-octadien-l- ol), d-limonene (l-methyl-4-isopropenyl-l-cyclohexene), benzyl acetate, isopropyl mystristate, and mixtures thereof, wherein said perfume mixture has a boiling point less than 250°C; and an inkjet head for delivering said fluid composition into the air. a fluid composition consisting of a perfume mixture, said perfume mixture containing one or more perfume materials, said one or more perfume materials selected from ethyl propionate, isobutyl acetate, beta gamma hexenol, alpha pinene, beta pinene, cis-hexenyl acetate, octanal, eucalyptol, ethyl acetate, and said perfume mixture containing functional perfume components selected from the group consisting of: iso-nonyl acetate, dihydro myrcenol (3-methylene-7-methyl octan- 7-ol), linalool (3-hydroxy-3, 7-dimethyl-l, 6 octadiene), geraniol (3, 7 dimethyl-2, 6-octadien-l- ol), d-limonene (l-methyl-4-isopropenyl-l-cyclohexene), benzyl acetate, isopropyl mystristate, and mixtures thereof, wherein said perfume mixture has a boiling point less than 250°C; and an inkjet head for delivering said fluid composition into the air.
A laundry treating apparatus comprising: a cabinet provided with a receiving space in which laundry is received; a supply unit for supplying at least one of the air and water into the receiving space ; a presser provided in the receiving space to pressurize the laundry so as to remove a wrinkle of the laundry; and a clamp unit provided below the presser to pressure and fix the laundry before pressurizing the laundry by using the presser , characterised in that the clamp unit comprises: a first support unit provided to be fixed into the receiving space , supporting the laundry; a first left clip provided at a left end of the first support unit , pressurizing and fixing a left end of the laundry together with the first support unit ; and a first right clip provided at a right end of the first support unit , pressurizing and fixing a right end of the laundry together with the first support unit , wherein the first support unit is formed of an elastic material to have an elastic force, and wherein the first left clip and the first right clip detachably pressurize and fix a left end and a right end of the laundry respectively using the elastic force so as not to pressurize a sewing line provided at a center of the laundry. a cabinet provided with a receiving space in which laundry is received; a supply unit for supplying at least one of the air and water into the receiving space ; a presser provided in the receiving space to pressurize the laundry so as to remove a wrinkle of the laundry; and a clamp unit provided below the presser to pressure and fix the laundry before pressurizing the laundry by using the presser , characterised in that the clamp unit comprises: a first support unit provided to be fixed into the receiving space , supporting the laundry; a first left clip provided at a left end of the first support unit , pressurizing and fixing a left end of the laundry together with the first support unit ; and a first right clip provided at a right end of the first support unit , pressurizing and fixing a right end of the laundry together with the first support unit , a first support unit provided to be fixed into the receiving space , supporting the laundry; a first left clip provided at a left end of the first support unit , pressurizing and fixing a left end of the laundry together with the first support unit ; and a first right clip provided at a right end of the first support unit , pressurizing and fixing a right end of the laundry together with the first support unit , wherein the first support unit is formed of an elastic material to have an elastic force, and