mhurhangee/ep-ind-claims huggingface dataset:
A flowable detergent preparation containing, based on the total weight thereof, a) 1 to 7 wt.% alcohol polyalkoxylate having a weight-average molecular weight M w in the range of 600 g/mol to 10,000 g/mol, obtainable by reacting diols having primary and/or secondary OH groups, which diols have a molecular weight M w in the range of 60 g/mol to 200 g/mol, with alkylene oxides, wherein the alcohol polyalkoxylate is selected from compounds of general formula in which R represents a linear, optionally branched or optionally cyclic alkyl group having 1 to 12 C atoms, R' and R" are, independently of one another, H, CH 3 or CH 2 CH 3, n and n', independently of one another, represent numbers from 0 to 30, preferably from 0 to 10 and in particular 0 to 5, and m and m', independently of one another, represent numbers from 0 to 30, preferably from 5 to 20 and in particular from 12 to 16, with the proviso that the sum n + n' + m + m' is at least 14, preferably in the range of 18 to 100 and in particular in the range of 20 to 70; b) 1 to 7 wt.% polyalkoxylated polyalkyleneimine, obtainable by reacting polyalkyleneimines with alkylene oxides; c) 5 to 15 wt.% alkyl ether sulfate; and d) less than 20 wt.% water; wherein the weight ratio of alcohol polyalkoxylate to polyalkoxylated polyalkyleneimine is 2:1 to 2:3 and the detergent preparation, based on the total weight thereof, contains less than 2 wt.% C 8-18 alkylbenzene sulfonates. a) 1 to 7 wt.% alcohol polyalkoxylate having a weight-average molecular weight M w in the range of 600 g/mol to 10,000 g/mol, obtainable by reacting diols having primary and/or secondary OH groups, which diols have a molecular weight M w in the range of 60 g/mol to 200 g/mol, with alkylene oxides, wherein the alcohol polyalkoxylate is selected from compounds of general formula in which R represents a linear, optionally branched or optionally cyclic alkyl group having 1 to 12 C atoms, R' and R" are, independently of one another, H, CH 3 or CH 2 CH 3, n and n', independently of one another, represent numbers from 0 to 30, preferably from 0 to 10 and in particular 0 to 5, and m and m', independently of one another, represent numbers from 0 to 30, preferably from 5 to 20 and in particular from 12 to 16, with the proviso that the sum n + n' + m + m' is at least 14, preferably in the range of 18 to 100 and in particular in the range of 20 to 70; in which R represents a linear, optionally branched or optionally cyclic alkyl group having 1 to 12 C atoms, R' and R" are, independently of one another, H, CH 3 or CH 2 CH 3, n and n', independently of one another, represent numbers from 0 to 30, preferably from 0 to 10 and in particular 0 to 5, and m and m', independently of one another, represent numbers from 0 to 30, preferably from 5 to 20 and in particular from 12 to 16, with the proviso that the sum n + n' + m + m' is at least 14, preferably in the range of 18 to 100 and in particular in the range of 20 to 70; b) 1 to 7 wt.% polyalkoxylated polyalkyleneimine, obtainable by reacting polyalkyleneimines with alkylene oxides; c) 5 to 15 wt.% alkyl ether sulfate; and d) less than 20 wt.% water;
An electric toothbrush for use by an operator and capable of being connected to a suction device, the electric toothbrush comprising: ahead including a plurality of bristles; an irrigation port interspersed between the plurality of bristles; an injection port in fluid communication with the irrigation port; a suction port located along edges or side surfaces of the head; and a handle coupled to the head including: a user interface configured to receive feedback from the operator a suction connection in fluid communication with the suction port via internal tubing and configured to be coupled to the suction device; a ventilation port, the ventilation port in fluid communication with the suction port and the suction connection by extending into the internal tubing, the ventilation port permitting suction from the suction device to the suction port; and a controller configured to actuate at least one of rotation, oscillation, and vibration of the plurality of bristles in response to the predetermined feedback from the operator through the user interface. ahead including a plurality of bristles; an irrigation port interspersed between the plurality of bristles; an injection port in fluid communication with the irrigation port; a suction port located along edges or side surfaces of the head; and a handle coupled to the head including: a user interface configured to receive feedback from the operator a suction connection in fluid communication with the suction port via internal tubing and configured to be coupled to the suction device; a ventilation port, the ventilation port in fluid communication with the suction port and the suction connection by extending into the internal tubing, the ventilation port permitting suction from the suction device to the suction port; and a controller configured to actuate at least one of rotation, oscillation, and vibration of the plurality of bristles in response to the predetermined feedback from the operator through the user interface. a user interface configured to receive feedback from the operator a suction connection in fluid communication with the suction port via internal tubing and configured to be coupled to the suction device; a ventilation port, the ventilation port in fluid communication with the suction port and the suction connection by extending into the internal tubing, the ventilation port permitting suction from the suction device to the suction port; and a controller configured to actuate at least one of rotation, oscillation, and vibration of the plurality of bristles in response to the predetermined feedback from the operator through the user interface.
An air cleaner assembly for an air cleaner arrangement in a vehicle, comprising a disposable air filter unit and a reusable carrier structure to which said air filter unit is removably arranged, the disposable air filter unit forming a sleeve about a central axis, extending axially between a first end surface and a second end surface, and forming an outer sleeve surface for receiving unfiltered air, and an inner sleeve surface for output of filtered air, characterised by the reusable carrier structure comprising a receiving member for receiving said first end surface of the air filter unit, and a sealing member arranged at the receiving member, to contact said first end surface of the air filter unit, wherein the reusable carrier structure comprises a support member extending axially from said receiving member to a free end, the support member being adapted to be surrounded by said inner sleeve surface of the air filter unit, wherein the air filter unit comprises a pleated filter component and a bioplastic reinforcement structure, arranged at the pleated filter component. characterised by the reusable carrier structure comprising a receiving member for receiving said first end surface of the air filter unit, and a sealing member arranged at the receiving member, to contact said first end surface of the air filter unit, wherein the reusable carrier structure comprises a support member extending axially from said receiving member to a free end, the support member being adapted to be surrounded by said inner sleeve surface of the air filter unit, wherein the air filter unit comprises a pleated filter component and a bioplastic reinforcement structure, arranged at the pleated filter component.
A method in a vehicle for checking a control device of a remote driving station, wherein the control device is used for remote operation of the vehicle by an operator of the remote driving station, wherein the control device comprises a manually operable input device having at least a first state and a second state, an input device control unit, and circuitry connecting the manually operable input device and the input device control unit, wherein the method comprises: sending a challenge from the vehicle to the remote driving station in a first data package, wherein the challenge is configured to cause the input device control unit to apply at least one output signal to said circuitry; receiving in the vehicle a response from the remote driving station in a second data package, wherein the response indicates at least one input signal received by the input device control unit from said circuitry in response to the at least one output signal; characterized by determining, by a vehicle control unit of the vehicle, at least one of the state of the manually operable input device and whether said circuitry is faulty based on the sent challenge and the received response. sending a challenge from the vehicle to the remote driving station in a first data package, wherein the challenge is configured to cause the input device control unit to apply at least one output signal to said circuitry; receiving in the vehicle a response from the remote driving station in a second data package, wherein the response indicates at least one input signal received by the input device control unit from said circuitry in response to the at least one output signal; characterized by determining, by a vehicle control unit of the vehicle, at least one of the state of the manually operable input device and whether said circuitry is faulty based on the sent challenge and the received response.
Method for processing rolling stock in a rolling line, in which the rolling stock is irradiated by x-ray radiation during the processing, comprising at least one x-ray detector with which the intensity of x-ray radiation (X') diffracted by the rolling stock in at least one predetermined direction is measured, the at least one x-ray detector being arranged in a position in which the occurrence of a reflection is expected, and wherein at least one actual value of a structure parameter (S actual) of the rolling stock is established on the basis of the intensity, characterized in that the rolling stock has a polycrystalline structure with statistical orientation of crystallites present in the rolling stock and the position of the expected reflection in relation to a phase of a crystallite to be examined is established with the aid of the Bragg condition.
A process for preparing a direct filling material which comprises: milling a resin infused ceramic block to form a powder; coating said powder with a silane mixture; mixing the powder with a curable resin to form a paste whereby when the resin is cured an interconnected ceramic and resin network is formed. milling a resin infused ceramic block to form a powder; coating said powder with a silane mixture; mixing the powder with a curable resin to form a paste whereby when the resin is cured an interconnected ceramic and resin network is formed.
Flatness roller including a cylindrical body extending along an axis of revolution (X-X) and radially delimited by an outer surface, the body including at least one cavity extending parallel to the axis of revolution (X-X), characterized in that: each cavity opens radially onto the outer surface through a plurality of slots each extending in a respective plane orthogonal to the axis of revolution (X-X), of which two successive slots along an axis parallel to the axis of revolution (X-X) defining a lamella between them, each lamella being connected to the body by two opposite circumferential ends of the lamella, each circumferential end forming a connection portion, the lamellas aligned in a direction parallel to the axis of revolution (X-X) forming a generatrix, the flatness roller further including at least one optical fibre comprising at least one strain sensor, each strain sensor having a measurement axis, each strain sensor being associated with a lamella, each strain sensor being housed in a corresponding cavity and attached to the corresponding lamella at a connection portion of the lamella, each strain sensor being arranged so that the angle between the corresponding measurement axis and a plane orthogonal to the axis of revolution (X-X) is less than or equal to 20°, preferably less than or equal to 10°, each optical fibre being configured to receive an interrogation signal, each strain sensor of each optical fibre being configured to send, depending on the interrogation signal received by the corresponding optical fibre, an optical response wave representative of a strain of the strain sensor along the corresponding measurement axis. each cavity opens radially onto the outer surface through a plurality of slots each extending in a respective plane orthogonal to the axis of revolution (X-X), of which two successive slots along an axis parallel to the axis of revolution (X-X) defining a lamella between them, each lamella being connected to the body by two opposite circumferential ends of the lamella, each circumferential end forming a connection portion, the lamellas aligned in a direction parallel to the axis of revolution (X-X) forming a generatrix, the flatness roller further including at least one optical fibre comprising at least one strain sensor, each strain sensor having a measurement axis, each strain sensor being associated with a lamella, each strain sensor being housed in a corresponding cavity and attached to the corresponding lamella at a connection portion of the lamella, each strain sensor being arranged so that the angle between the corresponding measurement axis and a plane orthogonal to the axis of revolution (X-X) is less than or equal to 20°, preferably less than or equal to 10°, each optical fibre being configured to receive an interrogation signal, each strain sensor of each optical fibre being configured to send, depending on the interrogation signal received by the corresponding optical fibre, an optical response wave representative of a strain of the strain sensor along the corresponding measurement axis.
A system for treating a respiratory problem in a patient through kinesthetic stimulation, comprising: - at least one sensor among various sensors or electrodes (12, 14, 16) or means for measuring the respiratory flow; - control means adapted for generating kinesthetic stimulation control signals in response to the detection of a respiratory problem; and - at least one kinesthetic effector that can be applied to a patient's external cutaneous site, and comprising a vibrating electromagnetic transducer adapted for receiving the control signals and for outputting a kinesthetic stimulation energy determined by said control signals, characterized in that: - said system is adapted for analyzing the signals provided by at least one of the sensors (12, 14, 16, 30) to differentiate between an apnea-type respiratory problem and a hypopnea-type respiratory problem; and - said system comprises means for automatically determining a treatment, that are adapted for dynamically selecting a stimulation strategy from a set of stored stimulation strategies, in accordance with the type of the expected or detected problem. - at least one sensor among various sensors or electrodes (12, 14, 16) or means for measuring the respiratory flow; - control means adapted for generating kinesthetic stimulation control signals in response to the detection of a respiratory problem; and - at least one kinesthetic effector that can be applied to a patient's external cutaneous site, and comprising a vibrating electromagnetic transducer adapted for receiving the control signals and for outputting a kinesthetic stimulation energy determined by said control signals, - said system is adapted for analyzing the signals provided by at least one of the sensors (12, 14, 16, 30) to differentiate between an apnea-type respiratory problem and a hypopnea-type respiratory problem; and - said system comprises means for automatically determining a treatment, that are adapted for dynamically selecting a stimulation strategy from a set of stored stimulation strategies, in accordance with the type of the expected or detected problem.
Vacuum robot comprising a housing, which has, on an underside, a suction mouth for sucking in air and dirt particles and a suction chamber with a suction duct leading off the suction chamber for transporting away air and dirt particles, and a rotatable bristle roller arranged in the suction chamber for picking up dirt particles, which can be transported away to the suction duct, wherein the bristle roller comprises: - a bristle roller body, - a collection region designed in such a way that elongate dirt particles collect on and/or in it during operation, - a plurality of bristles fixedly connected to the bristle roller body, and - elastic lamellae, which are fixedly connected to the bristle roller body, are positioned at a predetermined distance behind the bristles in the bristle roller cross-section in the circumferential direction in relation to the roller rotational direction and have a transverse force component which acts on the elongate dirt particles in an axial direction of the bristle roller body and is sufficient to transport the elongate dirt particles to and/or into the collection region. - a bristle roller body, - a collection region designed in such a way that elongate dirt particles collect on and/or in it during operation, - a plurality of bristles fixedly connected to the bristle roller body, and - elastic lamellae, which are fixedly connected to the bristle roller body, are positioned at a predetermined distance behind the bristles in the bristle roller cross-section in the circumferential direction in relation to the roller rotational direction and have a transverse force component which acts on the elongate dirt particles in an axial direction of the bristle roller body and is sufficient to transport the elongate dirt particles to and/or into the collection region.
A sensor comprising: at least a first (102, 402) and a second (112, 412) resonator, each of the first (102, 402) and second (112, 412) resonators having a first surface (105, 115) and an opposing second surface (107, 117) and each of the resonators (102, 112, 402, 412) comprising: a bottom electrode (104, 114); a piezoelectric layer (106, 116); and a top electrode (108, 118), wherein the piezoelectric layer (106, 116) is positioned between the bottom electrode (104, 114) and the top electrode (108, 118); a Bragg reflector stack beneath the first surfaces (105, 115) of both the first (102, 402) and second (112, 412) resonators; and a molecular recognition component layer (122, 420) positioned adjacent the second surfaces (107, 117) of both the first (102, 402) and second (112, 412) resonators wherein the at least first (102, 402) and second (112, 412) resonators are electrically connected in series. at least a first (102, 402) and a second (112, 412) resonator, each of the first (102, 402) and second (112, 412) resonators having a first surface (105, 115) and an opposing second surface (107, 117) and each of the resonators (102, 112, 402, 412) comprising: a bottom electrode (104, 114); a piezoelectric layer (106, 116); and a top electrode (108, 118), wherein the piezoelectric layer (106, 116) is positioned between the bottom electrode (104, 114) and the top electrode (108, 118); a bottom electrode (104, 114); a piezoelectric layer (106, 116); and a top electrode (108, 118), a Bragg reflector stack beneath the first surfaces (105, 115) of both the first (102, 402) and second (112, 412) resonators; and
A high-pressure cleaning device for soiled small parts, with a revolving unit, comprising - a lance having an outlet end for a nozzle and an inlet end, - a pivoting unit, which is connected to the lance, is pivotable about a z-direction extending transversely to the lance, and has a rotary nozzle feedthrough having a connecting portion for a high-pressure feed pipe for supplying the lance, - a rack accommodating the pivoting unit, - a hydraulic pivot drive unit disposed on the rack, for the pivoting movement of the pivoting unit, - an annular rotary feedthrough, which has a ring which is rotatable about an axis of rotation parallel to the y-axis and is connected with the rack, and which has a stationary ring connected to a carrying part, and - a rotary water feedthrough and at least one rotary oil feedthrough, preferably two rotary oil feedthroughs (42, 44), that each have annular outer parts and are disposed one behind the other in the y-direction, are on the same axis as the axis of rotation of the annular rotary feedthrough, and whose annular outer parts are fixed to the rack, wherein the rotary water feedthrough is connected to a stationary part of the rotary nozzle feedthrough via a feed pipe, and the at least one rotary oil feedthrough (42, 44) is connected to a connecting portion of a hydraulic cylinder via a feed pipe. - a lance having an outlet end for a nozzle and an inlet end, - a pivoting unit, which is connected to the lance, is pivotable about a z-direction extending transversely to the lance, and has a rotary nozzle feedthrough having a connecting portion for a high-pressure feed pipe for supplying the lance, - a rack accommodating the pivoting unit, - a hydraulic pivot drive unit disposed on the rack, for the pivoting movement of the pivoting unit, - an annular rotary feedthrough, which has a ring which is rotatable about an axis of rotation parallel to the y-axis and is connected with the rack, and which has a stationary ring connected to a carrying part, and - a rotary water feedthrough and at least one rotary oil feedthrough, preferably two rotary oil feedthroughs (42, 44), that each have annular outer parts and are disposed one behind the other in the y-direction, are on the same axis as the axis of rotation of the annular rotary feedthrough, and whose annular outer parts are fixed to the rack, wherein the rotary water feedthrough is connected to a stationary part of the rotary nozzle feedthrough via a feed pipe, and the at least one rotary oil feedthrough (42, 44) is connected to a connecting portion of a hydraulic cylinder via a feed pipe.
A solid oxide fuel cell using an integrated current collector, comprising: at least one unit cell including a fuel electrode, an electrolyte film, and an air electrode; a first current collector and a second current collector which are provided on both surfaces of the at least one unit cell and have a filling unit integrally formed at both ends of a body; and a sealing unit formed, by combining sealing members, on both surfaces of the filling unit, wherein the solid oxide fuel cell is a flat tubular type, and wherein a thickness of the first current collector or the second current collector satisfies the following Equation 1: Thickness of first current collector or second current collector = Thickness of filling unit + Thickness of sealing unit × 2. at least one unit cell including a fuel electrode, an electrolyte film, and an air electrode; a first current collector and a second current collector which are provided on both surfaces of the at least one unit cell and have a filling unit integrally formed at both ends of a body; and a sealing unit formed, by combining sealing members, on both surfaces of the filling unit, wherein the solid oxide fuel cell is a flat tubular type, and wherein a thickness of the first current collector or the second current collector satisfies the following Equation 1: Thickness of first current collector or second current collector = Thickness of filling unit + Thickness of sealing unit × 2.