mhurhangee/ep-ind-claims huggingface dataset:
Dishwasher, in particular household dishwasher, with a dishwasher cavity for the cleaning of dishes, glasses, cutlery or similar items to be washed and with at least one heat pump, which comprises at least one condenser facility for the condensation of a heat transport medium circulating during operation, wherein the at least one condenser facility is located in the dishwasher cavity, characterised in that for cooling the condenser facility in a drying phase of the dishwasher, at least one air outlet opening facing towards the condenser facility is provided in the dishwasher cavity, in order to thus be able to cool the condenser facility with air from the air outlet opening during the drying phase.
An RF switch adapted to modify a connection between at least one first conductive element (11, 110) and at least one second conductive element (12, 120), said switch being adapted to alternately route an RF signal and stop routing an RF signal between the first conductive element and the second conductive element, the RF switch being provided with: - a first region based on a phase change material disposed between the first conductive element and the second conductive element, - state control means for said first region of phase change material which are configured to modify by heating the crystal or amorphous state of said phase change material of said first region, the control means being provided with control electrodes (13a, 13b, 14a, 14b, 12, 120) arranged on either side of the first region and provided to apply a state control electrical signal for the first region of phase change material, the switch being further provided with at least one first decoupling switch configured to alternately connect a first control electrode and said first region of phase change material when said first decoupling switch is ON and to disconnect the first control electrode and the first region of phase change material when the decoupling switch is OFF, the first decoupling switch comprising a second region of phase change material disposed between the first control electrode and a second control electrode (13b, the second control electrode being disposed against the first region of phase change material. - a first region based on a phase change material disposed between the first conductive element and the second conductive element, - state control means for said first region of phase change material which are configured to modify by heating the crystal or amorphous state of said phase change material of said first region, the control means being provided with control electrodes (13a, 13b, 14a, 14b, 12, 120) arranged on either side of the first region and provided to apply a state control electrical signal for the first region of phase change material,
A connecting rod comprising: - a connecting rod body comprising a hole at one end and two arms (6,7) at the opposite end shaped such as to define therebetween a circular arc, - a connecting rod cap removably inserted between said two arms (6,7), said connecting rod cap being provided with an indentation shaped in such a way that, when the connecting rod cap is inserted between the two arms (6,7), the indentation forms a circular opening with the circular arc formed by the arms of the connecting rod body, - a seat (21,31) obtained on said connecting rod cap and on said arms (6,7) into which a fastening element is housed, - two wedges (4,5) inserted in said seat between the fastening element and the connecting rod cap, characterized in that - the fastening element is a beam-shaped element whose section increases from the ends towards the center, said fastening element being inserted in a seat of the body 100 between two openings (11, 12) and housed with suitable means to prevent said fastening element from moving in a direction orthogonal to a straight line α passing through the geometric center of the hole and the circular opening, - the two openings (11,12) are formed respectively symmetric with respect to the straight line α, and each one passes through the thickness of the respective arm (6,7), - each of the two wedges (4,5) is inserted in the seat through a corresponding arm of the connecting rod body and is arranged so as to have a contact surface (31a,31b) put in contact with the connecting rod cap, the contact surface (31a,31b) being arranged in a plane orthogonal to the straight line α. - a connecting rod body comprising a hole at one end and two arms (6,7) at the opposite end shaped such as to define therebetween a circular arc, - a connecting rod cap removably inserted between said two arms (6,7), said connecting rod cap being provided with an indentation shaped in such a way that, when the connecting rod cap is inserted between the two arms (6,7), the indentation forms a circular opening with the circular arc formed by the arms of the connecting rod body, - a seat (21,31) obtained on said connecting rod cap and on said arms (6,7) into which a fastening element is housed, - two wedges (4,5) inserted in said seat between the fastening element and the connecting rod cap, - the fastening element is a beam-shaped element whose section increases from the ends towards the center, said fastening element being inserted in a seat of the body 100 between two openings (11, 12) and housed with suitable means to prevent said fastening element from moving in a direction orthogonal to a straight line α passing through the geometric center of the hole and the circular opening, - the two openings (11,12) are formed respectively symmetric with respect to the straight line α, and each one passes through the thickness of the respective arm (6,7), - each of the two wedges (4,5) is inserted in the seat through a corresponding arm of the connecting rod body and is arranged so as to have a contact surface (31a,31b) put in contact with the connecting rod cap, the contact surface (31a,31b) being arranged in a plane orthogonal to the straight line α.
An additive manufacturing system comprising: a plurality of laser devices (14, 15), each laser device (14, 15) of the plurality of laser devices (14, 15) configured to generate a laser beam (16, 17); a plurality of first scanning devices (18, 19), each scanning device (18, 19) of the plurality of first scanning devices (18, 19) configured to selectively direct the laser beam (16, 17) from said laser device (14, 15) of said plurality of laser devices (14, 15) across a powder bed, wherein each laser beam (16, 17) generates a melt pool in the powder bed forming a plurality of melt pools (202, 204) in the powder bed; and an optical system comprising: an optical detector configured to detect electromagnetic radiation generated by the plurality of melt pools (202, 204); and a second scanning device configured to direct electromagnetic radiation generated by the plurality of melt pools (202, 204) to said optical detector, wherein said optical system is configured to detect a position of the plurality of melt pools (202, 204), wherein said optical system is configured to receive electromagnetic radiation from an observation zone, and wherein said second scanning device is configured to scan the observation zone across the powder bed to track the plurality of melt pools (202, 204) independent of said plurality of first scanning devices (18, 19). a plurality of laser devices (14, 15), each laser device (14, 15) of the plurality of laser devices (14, 15) configured to generate a laser beam (16, 17); a plurality of first scanning devices (18, 19), each scanning device (18, 19) of the plurality of first scanning devices (18, 19) configured to selectively direct the laser beam (16, 17) from said laser device (14, 15) of said plurality of laser devices (14, 15) across a powder bed, wherein each laser beam (16, 17) generates a melt pool in the powder bed forming a plurality of melt pools (202, 204) in the powder bed; and an optical system comprising: an optical detector configured to detect electromagnetic radiation generated by the plurality of melt pools (202, 204); and a second scanning device configured to direct electromagnetic radiation generated by the plurality of melt pools (202, 204) to said optical detector, wherein said optical system is configured to detect a position of the plurality of melt pools (202, 204), wherein said optical system is configured to receive electromagnetic radiation from an observation zone, and wherein said second scanning device is configured to scan the observation zone across the powder bed to track the plurality of melt pools (202, 204) independent of said plurality of first scanning devices (18, 19).
A ceramic particle for diaphragm having a core-shell structure, comprising a shell layer and a core, wherein the material for forming the shell layer comprises a modification material, and the material for forming the core comprises an inorganic ceramic material; the modification material is selected from a substituted siloxane, and the compound for forming the substituent of the substituted siloxane is selected from a nitrogen-containing heterocyclic compound; the siloxane is selected from an amino-containing siloxane; the substituted siloxane is obtained by replacing an amino group of the amino-containing siloxane with the nitrogen-containing heterocyclic compound; the inorganic ceramic material is selected from one or more of alumina, magnesium oxide, boehmite, barium sulfate, barium titanate, zinc oxide, calcium oxide, silicon dioxide, silicon carbide, and nickel oxide; a thickness of the shell layer is 5 nm-1000 nm; an average particle diameter of the inorganic ceramic material is 0.01 μm-20 μm. the modification material is selected from a substituted siloxane, and the compound for forming the substituent of the substituted siloxane is selected from a nitrogen-containing heterocyclic compound; the siloxane is selected from an amino-containing siloxane; the substituted siloxane is obtained by replacing an amino group of the amino-containing siloxane with the nitrogen-containing heterocyclic compound; the inorganic ceramic material is selected from one or more of alumina, magnesium oxide, boehmite, barium sulfate, barium titanate, zinc oxide, calcium oxide, silicon dioxide, silicon carbide, and nickel oxide; a thickness of the shell layer is 5 nm-1000 nm; an average particle diameter of the inorganic ceramic material is 0.01 μm-20 μm.
Method for characterizing a trailer attached to a towing vehicle, in which a kinematic model describing the trailer is predefined, comprising the steps of: a) receiving lidar sensor data from a lidar sensor apparatus of the towing vehicle from a surrounding area of the towing vehicle and of the attached trailer and identifying detection points (D, D', D") in the lidar sensor data that correspond to reflection points from the surrounding area; b) determining at least one model subregion (10, 11, 12) which overlaps the kinematic model at least in certain areas; c) classifying the detection points (D, D") within the model subregion (10, 11, 12) as detection points (D, D") corresponding to the trailer; d) determining at least one feature of the trailer on the basis of the detection points (D, D") corresponding to the trailer; e) comparing the at least one feature with the kinematic model; and f) updating the kinematic model on the basis of the comparison of the at least one feature with the kinematic model, wherein the kinematic model is determined on the basis of a geometric model of the trailer having at least one geometric parameter and on the basis of at least one kinematic parameter, and, in order to update the kinematic model, the geometric model and/or the at least one kinematic parameter is/are updated on the basis of the comparison of the at least one feature with the kinematic model, characterized in that an axle spacing of the trailer is determined as the at least one kinematic parameter, and the at least one kinematic parameter is updated on the basis of the comparison of the at least one feature and the kinematic model. a) receiving lidar sensor data from a lidar sensor apparatus of the towing vehicle from a surrounding area of the towing vehicle and of the attached trailer and identifying detection points (D, D', D") in the lidar sensor data that correspond to reflection points from the surrounding area; b) determining at least one model subregion (10, 11, 12) which overlaps the kinematic model at least in certain areas; c) classifying the detection points (D, D") within the model subregion (10, 11, 12) as detection points (D, D") corresponding to the trailer; d) determining at least one feature of the trailer on the basis of the detection points (D, D") corresponding to the trailer; e) comparing the at least one feature with the kinematic model; and f) updating the kinematic model on the basis of the comparison of the at least one feature with the kinematic model, wherein the kinematic model is determined on the basis of a geometric model of the trailer having at least one geometric parameter and on the basis of at least one kinematic parameter, and, in order to update the kinematic model, the geometric model and/or the at least one kinematic parameter is/are updated on the basis of the comparison of the at least one feature with the kinematic model, characterized in that an axle spacing of the trailer is determined as the at least one kinematic parameter, and the at least one kinematic parameter is updated on the basis of the comparison of the at least one feature and the kinematic model.
A fluid sensor apparatus, comprising: a fluid flow path; at least one fluid inlet fluidly connectable to the fluid flow path; a first fluid outlet and a second fluid outlet fluidly connectable to the fluid flow path, wherein the at least one fluid inlet, the first fluid outlet, and the second fluid outlet are positioned on the same side of a sampling chamber of the fluid sensor apparatus, and wherein the fluid inlet is positioned between the first fluid outlet and the second fluid outlet; a receiving slot for receiving a sensor card in the sampling chamber in fluid communication with the fluid inlet, the first fluid outlet and the second fluid outlet; a light source directing light to a first side of the receiving slot; and a camera or a photodetector receiving light from a second side of the receiving slot opposing the first side of the receiving slot. a fluid flow path; at least one fluid inlet fluidly connectable to the fluid flow path; a first fluid outlet and a second fluid outlet fluidly connectable to the fluid flow path, wherein the at least one fluid inlet, the first fluid outlet, and the second fluid outlet are positioned on the same side of a sampling chamber of the fluid sensor apparatus, and wherein the fluid inlet is positioned between the first fluid outlet and the second fluid outlet; a receiving slot for receiving a sensor card in the sampling chamber in fluid communication with the fluid inlet, the first fluid outlet and the second fluid outlet; a light source directing light to a first side of the receiving slot; and a camera or a photodetector receiving light from a second side of the receiving slot opposing the first side of the receiving slot.
A multimer of two to six extracellular domains of PD-1 for use in a method for the prevention and/or treatment of cancer, cancer metastasis, immune deficiency syndrome or infectious disease, wherein each extracellular domain of PD-1 is serially-concatenated with an adjacent extracellular domain of PD-1 through a linker or by direct binding of the C terminus of said extracellular domain to the N terminus of said adjacent extracellular domain.
A redirection method, comprising: sending (S1002, S1102), by a terminal to a mobility management network element in a first system, a cellular internet of things, CIOT, feature supported by the terminal in a second system and a CIOT feature preferred by the terminal in the second system, wherein the CIOT feature simported by the terminal and the CIOT feature preferred by the terminal is used to determine redirection indication information, wherein the first and second system are different; receiving (S1006, S1106), by the terminal, the redirection indication information from the mobility management network element in the first system; selecting (S1008, S1108), by the terminal, a second system based on the redirection indication information; and sending (S1010, S1110), by the terminal, a second message to the second system, wherein the second message requests to access the second system. sending (S1002, S1102), by a terminal to a mobility management network element in a first system, a cellular internet of things, CIOT, feature supported by the terminal in a second system and a CIOT feature preferred by the terminal in the second system, wherein the CIOT feature simported by the terminal and the CIOT feature preferred by the terminal is used to determine redirection indication information, wherein the first and second system are different; receiving (S1006, S1106), by the terminal, the redirection indication information from the mobility management network element in the first system; selecting (S1008, S1108), by the terminal, a second system based on the redirection indication information; and sending (S1010, S1110), by the terminal, a second message to the second system, wherein the second message requests to access the second system.
An affixing device for pieces, which comprises an affixing element that can be positioned through an opening in each one of the pieces (7, 8) that are affixed to each other, first and second retaining elements (2, 3), which, when they are in their affixing position, are in contact with the pieces (7, 8) that are affixed to each other, with the affixing element passing through said first and second retaining elements (2, 3), and with the first retaining element comprising an accommodation space for a tool characterized in that said accommodation space of the first retaining element is defined by at least one perimeter wall, the at least one perimeter wall comprises a distal lip for retaining the tool in the accommodation space.
A component (100, 200) for a network system, comprising: a communication device that receives at least energy information; a component driver part driven by supplied energy; a washing chamber in which a washing target is accommodated; and a control part (110, 210) that recognizes high price-related information or low price-related information, based on the energy information received by the communication device and that controls the component driver part, wherein a method of controlling the component driver part when the high price-related information is recognized is different from a method of controlling the component driver part when the low price-related information is recognized, wherein the component driver part comprises a motor for rotating the washing chamber, wherein a driving motion in which the washing target is moved is determined according to a method of controlling the motor, and the driving motion comprises a normal motion and at least one specific motion, characterized in that, when the high price-related information is recognized while the specific motion is performed, the method of controlling the motor is changed to perform the normal motion. a communication device that receives at least energy information; a component driver part driven by supplied energy; a washing chamber in which a washing target is accommodated; and a control part (110, 210) that recognizes high price-related information or low price-related information, based on the energy information received by the communication device and that controls the component driver part, wherein a method of controlling the component driver part when the high price-related information is recognized is different from a method of controlling the component driver part when the low price-related information is recognized, wherein the component driver part comprises a motor for rotating the washing chamber, wherein a driving motion in which the washing target is moved is determined according to a method of controlling the motor, and the driving motion comprises a normal motion and at least one specific motion, characterized in that, when the high price-related information is recognized while the specific motion is performed, the method of controlling the motor is changed to perform the normal motion.
A liquid pharmaceutical composition comprising 600 mg pertuzumab at a concentration of 60 mg/ml, 600 mg trastuzumab at a concentration of 60 mg/ml, 2,000 U/mL rHuPH20, 20 mM His-HCl pH 5.5, 105 mM trehalose, 100 mM sucrose, 0.04% polysorbate 20, 10 mM methionine, and sterile water for injection up to a total volume of 10 ml.
A lubricating composition comprising an oil of lubricating viscosity and a compound obtained/obtainable by a process comprising reacting a glycolic acid, or an alkali or alkaline metal salt thereof with an alcohol, wherein the compound is represented by formula: wherein R 1 is a hydrocarbyl group, typically containing 4 to 30 carbon atoms; Z is hydrogen; and n is 1 to 4; and wherein the compound is present at 0.01 to 5 wt % of the lubricating composition. R 1 is a hydrocarbyl group, typically containing 4 to 30 carbon atoms; Z is hydrogen; and n is 1 to 4; and wherein the compound is present at 0.01 to 5 wt % of the lubricating composition.
Curable reactive-resin system, especially encapsulating compound, moulding compound or high-temperature resin, which is to be processed as a two-component composition and comprises a first reactive-resin component and also a second reactive-resin component, characterized in that the first reactive-resin component is epoxide-free and configured on the basis of a cyanate ester, in that the first reactive-resin component comprises a modifier based on a silicone or siloxane, and in that the modifier is in the form of an emulsion of siloxanes in a cyanate ester-based resin.
Actuator having an electric motor controlled by a control unit and having an active electronic position sensor for detecting the actuator position, wherein electrical energy for the operation of the position sensor is tapped from the control unit via the motor terminals of the motor control line, wherein the two motor terminals (5, 6) of the control voltage U M1 and U M2 for the operation of the motor are switched such that at least one motor terminal (5, 6), at periodic intervals, delivers a positive pulsed voltage, characterized in that a rectifier circuit having a series resistor and storage capacitor is provided down-circuit of the motor terminal (5, 6) tap-off, wherein, during the idling of the motor, one of the two motor terminals (5, 6) of the control voltage U M1 and U M2 carries a positive voltage U B and, during the braking of the motor, one of the two motor terminals (5, 6) of the control voltage U M1 and U M2 carries a positive voltage U B.