mhurhangee/patent-ind-claim-en huggingface dataset:
A dishwasher , in particular commercial dishwasher, which is designed in the form of a box-type dishwasher, wherein the dishwasher has a fresh-water connection with a feed valve , wherein a water-treatment system with a reverse-osmosis device is provided downstream of the feed valve in order to treat, in particular as required, as least some of the fresh water fed to the dishwasher via the fresh-water connection , wherein a backflow preventer is provided between the feed valve and the reverse-osmosis device in order to prevent water from flowing back from the dishwasher into a fresh-water-supply installation which is flow-connected to the fresh-water connection , characterized in that the flow connection between the backflow preventer and the reverse-osmosis device contains within it an air-extraction tank having a water inlet which is flow-connected to the backflow preventer , having a water outlet which is flow-connected to the reverse-osmosis device , and having an air-admission/air-extraction opening , wherein the reverse-osmosis device has a membrane module having a fresh-water inlet which is flow-connected to the backflow preventer , having a permeate outlet and having a concentrate outlet , wherein a prefilter , in particular a carbon filter, and a booster pump are provided in the flow connection between the fresh-water inlet and the membrane module , and wherein the dishwasher has a housing , which accommodates a treatment chamber of the dishwasher and the reverse-osmosis device , wherein the dishwasher has a single fresh-water connection leading into the housing and a single outflow leading out of the housing. the flow connection between the backflow preventer and the reverse-osmosis device contains within it an air-extraction tank having a water inlet which is flow-connected to the backflow preventer , having a water outlet which is flow-connected to the reverse-osmosis device , and having an air-admission/air-extraction opening , wherein the reverse-osmosis device has a membrane module having a fresh-water inlet which is flow-connected to the backflow preventer , having a permeate outlet and having a concentrate outlet , wherein a prefilter , in particular a carbon filter, and a booster pump are provided in the flow connection between the fresh-water inlet and the membrane module , and wherein the dishwasher has a housing , which accommodates a treatment chamber of the dishwasher and the reverse-osmosis device , wherein the dishwasher has a single fresh-water connection leading into the housing and a single outflow leading out of the housing.
An electric storage system comprising: a plurality of electric storage devices including a plurality of modules (MO); a battery management unit (BMU); a line concentrator (HUB) connected with the battery management unit (BMU); and a system controller (SYS) connected with the line concentrator (HUB) through a communication passage, wherein the plurality of modules (MO) include a battery unit , a voltage measurement unit, a temperature measurement unit and a current measurement unit , wherein the battery management unit (BMU) is configured to control at least one of the plurality of electric storage devices based on an instruction transmitted from the line concentrator (HUB), wherein the battery management unit (BMU) is configured to control charge/discharge of the electric storage device based on the instruction transmitted from the line concentrator (HUB), and characterized in that the electric storage system further comprises a common power line (L pw1 ) that is connected to the battery management unit and the line concentrator (HUB), and in that the line concentrator is configured to instruct that a charge/discharge of the at least one of the plurality of electric storage devices is prohibited in a case where a series number and parallel number of the modules (MO) set in the line concentrator (HUB) by the system controller (SYS) and the series number and parallel number of the modules (MO) based on data that the line concentrator (HUB) has received are different. a plurality of electric storage devices including a plurality of modules (MO); a battery management unit (BMU); a line concentrator (HUB) connected with the battery management unit (BMU); and a system controller (SYS) connected with the line concentrator (HUB) through a communication passage, wherein the plurality of modules (MO) include a battery unit , a voltage measurement unit, a temperature measurement unit and a current measurement unit , wherein the battery management unit (BMU) is configured to control at least one of the plurality of electric storage devices based on an instruction transmitted from the line concentrator (HUB), wherein the battery management unit (BMU) is configured to control charge/discharge of the electric storage device based on the instruction transmitted from the line concentrator (HUB), and characterized in that the electric storage system further comprises a common power line (L pw1 ) that is connected to the battery management unit and the line concentrator (HUB), and in that the line concentrator is configured to instruct that a charge/discharge of the at least one of the plurality of electric storage devices is prohibited in a case where a series number and parallel number of the modules (MO) set in the line concentrator (HUB) by the system controller (SYS) and the series number and parallel number of the modules (MO) based on data that the line concentrator (HUB) has received are different.
A cylinder of a combustor comprising: a cylinder body configured such that a combustion gas can flow inside thereof in operation; a jacket plate (61;81) that covers the cylinder body from the outside and forms a fluid space (Fs) into which high-pressure fluid can flow between an inner peripheral surface (61a;811d) of the jacket plate (61;81) and an outer peripheral surface of the cylinder body ; and a rib (62;72;82) that connects the cylinder body and the jacket plate (61;81), wherein the rib (62;72;82) is connected to the cylinder body by a cylinder side end portion (621a;721a;821a) on the cylinder body side in a radial direction (Dr) with respect to an axis (Ac) of the cylinder body being welded, and wherein the rib (62;72;82) is connected to the jacket plate (61;81) by a jacket side end portion (621b;721b;821b) on the jacket plate side in the radial direction (Dr) being welded, characterized in that the rib (62;72;82) is an element that was prepared, before the connection by welding, as a separate element from the cylinder body and the jacket plate (61;81), the rib (62;72;82) is connected to the cylinder body by the cylinder side end portion (621a;721a;821a) on the cylinder body side being welded from both sides in an axial direction (Da) of the axis (Ac), and the rib (62;72;82) is connected to the jacket plate (61;81) by the jacket side end portion (621b;721b;821b) being welded from both sides in the axial direction (Da). a cylinder body configured such that a combustion gas can flow inside thereof in operation; a jacket plate (61;81) that covers the cylinder body from the outside and forms a fluid space (Fs) into which high-pressure fluid can flow between an inner peripheral surface (61a;811d) of the jacket plate (61;81) and an outer peripheral surface of the cylinder body ; and a rib (62;72;82) that connects the cylinder body and the jacket plate (61;81), wherein the rib (62;72;82) is connected to the cylinder body by a cylinder side end portion (621a;721a;821a) on the cylinder body side in a radial direction (Dr) with respect to an axis (Ac) of the cylinder body being welded, and wherein the rib (62;72;82) is connected to the jacket plate (61;81) by a jacket side end portion (621b;721b;821b) on the jacket plate side in the radial direction (Dr) being welded, characterized in that the rib (62;72;82) is an element that was prepared, before the connection by welding, as a separate element from the cylinder body and the jacket plate (61;81), the rib (62;72;82) is connected to the cylinder body by the cylinder side end portion (621a;721a;821a) on the cylinder body side being welded from both sides in an axial direction (Da) of the axis (Ac), and the rib (62;72;82) is connected to the jacket plate (61;81) by the jacket side end portion (621b;721b;821b) being welded from both sides in the axial direction (Da).
Ultrasonic processing system comprising an ultrasonic vibrator having an ultrasonic sonotrode with at least one working surface for ultrasonic processing of at least one workpiece, wherein the vibrator comprises - a longitudinal axis (L), - an enclosed cavity extending along the longitudinal axis (L) at least in the sonotrode , - at least one medium inlet through which a cooling medium, in particular a cooling gas, can be fed into the cavity , - at least one cooling channel fluidly connected to the enclosed cavity and guiding the medium through the vicinity of the working surface such that the working surface is cooled by the cooling medium, - at least one first medium outlet fluidly connected to the cooling channel , characterized in that the vibrator further comprises at least one vortex generator which is designed and arranged between the medium inlet and the cavity such that a swirl motion of the medium inside the cavity around the longitudinal axis (L) can be generated. - a longitudinal axis (L), - an enclosed cavity extending along the longitudinal axis (L) at least in the sonotrode , - at least one medium inlet through which a cooling medium, in particular a cooling gas, can be fed into the cavity , - at least one cooling channel fluidly connected to the enclosed cavity and guiding the medium through the vicinity of the working surface such that the working surface is cooled by the cooling medium, - at least one first medium outlet fluidly connected to the cooling channel ,
A burner device comprising: an air intake ; a burner head including an ignition device ; a body section defining a fluid flow channel between said air intake and said burner head; and a gas injector for injecting combustible gas into said fluid flow channel, wherein the burner head is oriented such that its longitudinal axis is substantially perpendicular to the plane in which said channel is defined and in which fluid flows, in use, along said channel, wherein the burner head comprises a body shaped to define a mixing chamber, the mixing chamber having an inlet by which a mixture of combustible gas and air is received in use from the fluid flow channel, and an outlet by which said mixture of combustible gas and air is directed to the ignition device, characterized in that the mixing chamber inlet comprises a plurality of spaced apart apertures formed in a wall between the fluid flow channel and the mixing chamber, wherein said apertures have a respective central axis that is oblique to said wall . an air intake ; a burner head including an ignition device ; a body section defining a fluid flow channel between said air intake and said burner head; and a gas injector for injecting combustible gas into said fluid flow channel, wherein the burner head is oriented such that its longitudinal axis is substantially perpendicular to the plane in which said channel is defined and in which fluid flows, in use, along said channel, wherein the burner head comprises a body shaped to define a mixing chamber, the mixing chamber having an inlet by which a mixture of combustible gas and air is received in use from the fluid flow channel, and an outlet by which said mixture of combustible gas and air is directed to the ignition device, characterized in that the mixing chamber inlet comprises a plurality of spaced apart apertures formed in a wall between the fluid flow channel and the mixing chamber, wherein said apertures have a respective central axis that is oblique to said wall .
A foaming antimicrobial dermal cleanser comprising: a. a cationic active ingredient, which provides antimicrobial activity; b. 0.1 to 12.5 wt-% of one or more cationic compatible surfactant; c. a foam boosting agent comprising glyceryl caprylate/caprate; d. a foam structure enhancing agent comprising PEG 8000, hexylene glycol, myristamide diisopropanolamide and phenoxyethanol; e. a skin conditioning agent comprising one or more of glycerin, vitamin E acetate, methyl gluceth 20, and hydroxypropyl guar hydroxypropyltrimonium chloride; and f. water, wherein said cleanser is substantially free of anionic surfactants and triclosan. a. a cationic active ingredient, which provides antimicrobial activity; b. 0.1 to 12.5 wt-% of one or more cationic compatible surfactant; c. a foam boosting agent comprising glyceryl caprylate/caprate; d. a foam structure enhancing agent comprising PEG 8000, hexylene glycol, myristamide diisopropanolamide and phenoxyethanol; e. a skin conditioning agent comprising one or more of glycerin, vitamin E acetate, methyl gluceth 20, and hydroxypropyl guar hydroxypropyltrimonium chloride; and f. water,
An electric pump comprising: an impeller ; a rotor (R) connected to the impeller ; a housing accommodating the rotor (R); divided iron cores surrounding the housing from an outside of the housing ; divided coil bobbins respectively attached to the divided iron cores ; divided coils respectively wound around the divided coil bobbins ; wherein the housing includes a bottom wall portion directly or indirectly holding a shaft portion in a standing manner, the shaft portion supports the rotor (R) for rotation, the bottom wall portion overlaps at least a part of the divided coils in an orthogonal direction (D2) orthogonal to an axial direction (D1) of the rotor (R); characterised by a bus bar unit including bus bars , wherein: the bus bar unit is conductively connected to the divided coils and is held by the bottom wall portion ; and the bus bars overlap the divided coils in the orthogonal direction (D2). an impeller ; a rotor (R) connected to the impeller ; a housing accommodating the rotor (R); divided iron cores surrounding the housing from an outside of the housing ; divided coil bobbins respectively attached to the divided iron cores ; divided coils respectively wound around the divided coil bobbins ; wherein the housing includes a bottom wall portion directly or indirectly holding a shaft portion in a standing manner, the shaft portion supports the rotor (R) for rotation, the bottom wall portion overlaps at least a part of the divided coils in an orthogonal direction (D2) orthogonal to an axial direction (D1) of the rotor (R); characterised by a bus bar unit including bus bars , wherein: the bus bar unit is conductively connected to the divided coils and is held by the bottom wall portion ; and the bus bars overlap the divided coils in the orthogonal direction (D2). the bus bar unit is conductively connected to the divided coils and is held by the bottom wall portion ; and the bus bars overlap the divided coils in the orthogonal direction (D2).
An elevator system having the following features: an elevator car arranged horizontally movable along a rail in a shaft ; a drive unit designed to move the elevator car along the rail ; a brake unit designed to brake the elevator car ; characterized by a control unit which, upon an imminent change in velocity of the elevator car, is designed to first initiate an acceleration B2 on a person within the elevator car and then control the brake unit or the drive unit such that it transmits the velocity change with an acceleration B1 to the elevator car , wherein acceleration B2 is greater in magnitude than acceleration B1. an elevator car arranged horizontally movable along a rail in a shaft ; a drive unit designed to move the elevator car along the rail ; a brake unit designed to brake the elevator car ; characterized by a control unit which, upon an imminent change in velocity of the elevator car, is designed to first initiate an acceleration B2 on a person within the elevator car and then control the brake unit or the drive unit such that it transmits the velocity change with an acceleration B1 to the elevator car , wherein acceleration B2 is greater in magnitude than acceleration B1.
A material comprising a glass substrate coated on one face with a stack of thin layers with properties of reflection in the infrared and/or in solar radiation comprising at least one metallic functional layer , in particular based on silver or metal alloy containing silver and at least two anti reflective coatings , said anti reflective coatings each comprising at least one dielectric layer , said functional layer being arranged between the two antireflective coatings , characterized in that said anti reflective coating located beneath said functional layer in the direction of said substrate comprises: - a sublayer of zinc-based oxide, ZnO that is located beneath and in contact with said functional layer , with a physical thickness of said sublayer based on zinc oxide ZnO that is between 0.3 and 5.0 nm, or between 0.3 and 4.4 nm, or between 0.3 and 2.9 nm, or between 0.5 and 2.4 nm; and - a dielectric sublayer of silicon-based nitride, Si 3 N 4 that is located beneath and in contact with said sublayer of zinc-based oxide, ZnO , with a physical thickness of said dielectric sublayer of silicon-based nitride Si 3 N 4 that is between 10.0 and 50.0 nm, or between 22.0 and 45.0 nm, or between 35.0 and 45.0 nm; and in that said antireflective coating located above said functional layer opposite said substrate comprises: - an overlay of zinc-based oxide, ZnO that is located on top of and in contact with said functional layer , with a physical thickness of said overlay of zinc-based oxide, ZnO that is between 2.0 and 10.0 nm, or between 2.0 and 8.0 nm, or between 2.5 and 5.4 nm; and - a dielectric overlay that is located on said overlay of zinc-based oxide, ZnO and, preferably a dielectric overlay of silicon-based nitride, Si 3 N 4 . - a sublayer of zinc-based oxide, ZnO that is located beneath and in contact with said functional layer , with a physical thickness of said sublayer based on zinc oxide ZnO that is between 0.3 and 5.0 nm, or between 0.3 and 4.4 nm, or between 0.3 and 2.9 nm, or between 0.5 and 2.4 nm; and - a dielectric sublayer of silicon-based nitride, Si 3 N 4 that is located beneath and in contact with said sublayer of zinc-based oxide, ZnO , with a physical thickness of said dielectric sublayer of silicon-based nitride Si 3 N 4 that is between 10.0 and 50.0 nm, or between 22.0 and 45.0 nm, or between 35.0 and 45.0 nm; - an overlay of zinc-based oxide, ZnO that is located on top of and in contact with said functional layer , with a physical thickness of said overlay of zinc-based oxide, ZnO that is between 2.0 and 10.0 nm, or between 2.0 and 8.0 nm, or between 2.5 and 5.4 nm; and - a dielectric overlay that is located on said overlay of zinc-based oxide, ZnO and, preferably a dielectric overlay of silicon-based nitride, Si 3 N 4 .
A device, comprising: a Radio Frequency Identification, RFID, chip ; a high frequency, HF, coil antenna including a first coil end and a second coil end ; and an ultra high frequency, UHF, tuning loop conductively coupled to the RFID chip , characterized in that a first coupling pad is conductively coupled to the RFID chip and UHF tuning loop ; a second coupling pad is conductively coupled to the RFID chip and UHF tuning loop ; and the first coil end is configured to couple with the first coupling pad and the second coil end is configured to couple with the second coupling pad . a Radio Frequency Identification, RFID, chip ; a high frequency, HF, coil antenna including a first coil end and a second coil end ; and an ultra high frequency, UHF, tuning loop conductively coupled to the RFID chip , characterized in that a first coupling pad is conductively coupled to the RFID chip and UHF tuning loop ; a second coupling pad is conductively coupled to the RFID chip and UHF tuning loop ; and the first coil end is configured to couple with the first coupling pad and the second coil end is configured to couple with the second coupling pad .
A DNA marker, which is linked to the linkage group 6 Botrytis cinerea resistance locus of tomato plant 04TEP990312, seed of which was deposited under Deposit Number NCIMB 41623, and which can be amplified by a pair of PCR oligonucleotide primers selected from i. primer pair 1 represented by a forward primer of SEQ ID NO: 1 and a reverse primer of SEQ ID NO: 2, ii. primer pair 2 represented by a forward primer of SEQ ID NO: 3 and a reverse primer of SEQ ID NO: 4. i. primer pair 1 represented by a forward primer of SEQ ID NO: 1 and a reverse primer of SEQ ID NO: 2, ii. primer pair 2 represented by a forward primer of SEQ ID NO: 3 and a reverse primer of SEQ ID NO: 4.
A single-shell spring control arm formed of sheet metal for a wheel suspension of a motor vehicle - with upwardly directed side limbs connected to one another by a base , - with a first end section (1.1) for connection to a chassis girder, - with a second end section (1.2) for wheel-side connection, - with a spring receiving section (1.3), which is located between the two end sections (1.1, 1.2) and has a spring support surface (2.1) formed on the base , and - with a damper receiving section (1.4) formed between the spring receiving section (1.3) and the second end section (1.2) for connecting a shock absorber, characterized in that a U-shaped constriction in the form of a U-shaped bead is formed between the spring support surface (2.1) and the damper receiving portion (1.4), which constriction extends in the base and in the side limbs . - with upwardly directed side limbs connected to one another by a base , - with a first end section (1.1) for connection to a chassis girder, - with a second end section (1.2) for wheel-side connection, - with a spring receiving section (1.3), which is located between the two end sections (1.1, 1.2) and has a spring support surface (2.1) formed on the base , and - with a damper receiving section (1.4) formed between the spring receiving section (1.3) and the second end section (1.2) for connecting a shock absorber, characterized in that a U-shaped constriction in the form of a U-shaped bead is formed between the spring support surface (2.1) and the damper receiving portion (1.4), which constriction extends in the base and in the side limbs .
A glove structure , at least comprising: a glove core and a piece , wherein a bottom surface (S2) of the piece covers an outer surface (S1) of the glove core , the outer surface (S1) is configured to have an injection molding assembly , the injection molding assembly fills a section (S3) of the piece wherein the injection molding assembly extends to a top surface (S4) of the piece to form an injection mold overlapping section , and the injection mold overlapping section merely fills a top surface edge (E1) of the top surface (S4), wherein the bottom surface (S2) of the piece is configured to have a bonding layer , characterized in that the injection molding assembly extends underneath the bottom surface (S2) to form an injection mold clamping section , the injection mold clamping section is adhered to a bonding bottom surface (S5) of the bonding layer . wherein a bottom surface (S2) of the piece covers an outer surface (S1) of the glove core , the outer surface (S1) is configured to have an injection molding assembly , the injection molding assembly fills a section (S3) of the piece wherein the injection molding assembly extends to a top surface (S4) of the piece to form an injection mold overlapping section , and the injection mold overlapping section merely fills a top surface edge (E1) of the top surface (S4), wherein the bottom surface (S2) of the piece is configured to have a bonding layer , characterized in that the injection molding assembly extends underneath the bottom surface (S2) to form an injection mold clamping section , the injection mold clamping section is adhered to a bonding bottom surface (S5) of the bonding layer .