mhurhangee/ep-ind-claims huggingface dataset:
An evaporation source, in particular for use in a sputtering process or a vacuum arc evaporation process, preferably a cathodic vacuum arc evaporation process, which evaporation source comprises an inner base body arranged in an outer supporting body, wherein the outer supporting body is arranged coaxially to the base body with respect to an evaporator axis, and the base body is arranged with respect to the outer supporting body in such a way that between the basic body and the supporting body a cooling chamber is formed, which is in flow connection with an inlet and an outlet, wherein the cooling chamber comprises an inflow chamber and an outflow chamber, and for cooling the evaporation source, the inflow chamber is in flow communication with the outflow chamber via an overflow connection in such a way that a cooling fluid can be conveyed from the inlet to the outlet via the inflow chamber, the overflow connection and the outflow chamber, and the base body encloses a magnetic system space free of the cooling fluid, characterized in that the inflow chamber and the outflow chamber form a common annular body, and the inflow chamber and the outflow chamber each form a cylindrical half annular body in the common annular body, which are separated from each other in the circumferential direction by a separating wall.
Sports in-ear headphone adapted to be worn during sports, comprising a housing for accommodating an electro-acoustic transducer and an extension adapter unit which is coupled to the housing of the in-ear headphone, wherein the extension adapter unit comprises an extension unit with an upper portion with a curvature for fitting into an ear of a user and at least one flexible coupling element for coupling the upper portion to the housing of the in-ear headphone, characterized in that the upper portion has a first end and a second end that enclose the region of the curvature, and that the upper portion with the curvature is selected such, that the upper portion fits into the crus inferior anthelicis, the antihelix and the concha of the ear of a user, and that the second end can rest on the crus inferior anthelicis and the first end can rest in the concha of the user's ear, whereby a secure and tight fit in the user's ear is enabled, namely on the crus inferior anthelicis, the antihelix and the concha. a housing for accommodating an electro-acoustic transducer and an extension adapter unit which is coupled to the housing of the in-ear headphone, wherein the extension adapter unit comprises an extension unit with an upper portion with a curvature for fitting into an ear of a user and at least one flexible coupling element for coupling the upper portion to the housing of the in-ear headphone, characterized in that the upper portion has a first end and a second end that enclose the region of the curvature, and that the upper portion with the curvature is selected such, that the upper portion fits into the crus inferior anthelicis, the antihelix and the concha of the ear of a user, and that the second end can rest on the crus inferior anthelicis and the first end can rest in the concha of the user's ear, whereby a secure and tight fit in the user's ear is enabled, namely on the crus inferior anthelicis, the antihelix and the concha.
A table device suitable to be situated in front of a vehicle occupant in a space in an interior panel of a vehicle comprising a table unit with a board element and a rail configuration with at least two mutually parallel rail track elements (42, 44) each comprising an upper rail track (42a, 44a) and, running beneath it, a lower rail track (42b, 44b), relative to which rail configuration the table unit is suitable to be arranged for movement in the vehicle's longitudinal extent between a deployed state for use and a retracted state, in which the table unit is provided with at least one upper running means (16a, 16b) cooperating with each upper rail track (42a, 44a) and at least one lower running means (18a, 18b) cooperating with each lower rail track (42b, 44b) whereby the rail configuration is suitable to be arranged to run in the space with a slope downwards protruding forward obliquely in the vehicle's longitudinal extent and to bringing the table unit from a slope in the retracted state to a substantially definite horizontal position in the deployed state, characterised in that the respective rail track elements (42, 44) being provided with a hollow (42e, 44e) situated on the respective upper rail tracks (42a, 44a) in which said upper running means (16a, 16b) are arranged to slide down in and rest when the table unit is in the deployed state and wherein said respective lower rail tracks (42b, 44b) each has an upper rail portion against which the lower running means (18a, 18b) act in the deployed state.
A driving circuit, comprising: a rectifier unit comprising a first input terminal (a1; a2; a3), a second input terminal (b1; b2) and an output terminal, wherein the output terminal of the rectifier unit is connected to an input terminal of an inverter unit, and the second input terminal (b1; b2) of the rectifier unit is connected tc the input terminal of the inverter unit; a first switch arranged between the first input terminal of the rectifier unit and an output terminal of the inverter unit, characterized by a capacitor connected in parallel between the rectifier unit and the inverter unit, and in that the first switch is configured to control the driving circuit to switch between a series mode and a parallel mode by being switched on or off; the inverter unit with the output terminal connected to a load; and in case where the first switch is switched on, the driving circuit is in the parallel mode, the rectifier unit and the inverter unit are connected in parallel, the second input terminal (b1; b2) of the rectifier unit is a direct current input terminal, and the first input terminal (a1; a2; a3) of the rectifier unit is an alternating current output terminal, the rectifier unit has the same function as that of the inverter unit, and the rectifier unit is configured to convert the direct current to the alternating current. a rectifier unit comprising a first input terminal (a1; a2; a3), a second input terminal (b1; b2) and an output terminal, wherein the output terminal of the rectifier unit is connected to an input terminal of an inverter unit, and the second input terminal (b1; b2) of the rectifier unit is connected tc the input terminal of the inverter unit; a first switch arranged between the first input terminal of the rectifier unit and an output terminal of the inverter unit, characterized by a capacitor connected in parallel between the rectifier unit and the inverter unit, and in that the first switch is configured to control the driving circuit to switch between a series mode and a parallel mode by being switched on or off; the inverter unit with the output terminal connected to a load; and in case where the first switch is switched on, the driving circuit is in the parallel mode, the rectifier unit and the inverter unit are connected in parallel, the second input terminal (b1; b2) of the rectifier unit is a direct current input terminal, and the first input terminal (a1; a2; a3) of the rectifier unit is an alternating current output terminal, the rectifier unit has the same function as that of the inverter unit, and the rectifier unit is configured to convert the direct current to the alternating current.
Sliding door fitting for at least two sliding doors (13a, 13b) that can be placed in parallel, with an upper and a lower sliding rail (2a, 2b), each having a guide groove, and with at least two upper and two lower spring sliders (4a, 4b) for each of the sliding doors (13a, 13b), wherein the spring sliders (4a, 4b) are each formed in one piece from plastic material and each comprise a base body with two opposite longitudinal edges (6a, 6b), of which the one, first longitudinal edge is intended to rest on the one groove flank of the guide groove, and a spring arm which is formed on the base body, the free spring arm end of which is intended to rest on the other groove flank of the guide groove, wherein the spring arm can be deflected from a starting position, in which the free spring arm end projects outwards beyond the other, second longitudinal edge, against the action of a restoring force into a less far projecting end position and wherein the distance (b) between the two longitudinal edges (6a, 6b) of the base body is at most half the size of the groove width of the guide groove such that two compressed spring sliders (4a, 4b) can be located parallel to one another in the sliding rail (2a, 2b).
A liquid droplet production apparatus comprising: a perforate membrane; a means for supplying liquid to one side of the membrane; an actuator (41, 42; 50; 60; 70; 80; 100) for vibrating a membrane, so that the vibration causes liquid droplets to be ejected from the other side of the membrane; in which a magnetic force is used to connect the actuator to the membrane so that the vibration can be transmitted, wherein the magnetic force is generated by one or more arrays of magnets (43; 51; 61; 81, 82; 101, 102), each array containing either a plurality of magnets or at least one magnet having a multiple pole configuration; and switch means for switching one or more of the magnets off or for altering the polarity of one or more of the magnets. a perforate membrane; a means for supplying liquid to one side of the membrane; an actuator (41, 42; 50; 60; 70; 80; 100) for vibrating a membrane, so that the vibration causes liquid droplets to be ejected from the other side of the membrane; in which a magnetic force is used to connect the actuator to the membrane so that the vibration can be transmitted, wherein the magnetic force is generated by one or more arrays of magnets (43; 51; 61; 81, 82; 101, 102), each array containing either a plurality of magnets or at least one magnet having a multiple pole configuration; and switch means for switching one or more of the magnets off or for altering the polarity of one or more of the magnets.
A method of calibrating robots, the method comprising the steps of: (a) providing at least two robots (R 1 and R 2), each robot (R 1, R 2) having joints and/or links connecting two flanges: a base flange and a tool flange, (b) forming a closed chain from the at least two robots (R 1, R 2), wherein the connecting flanges of the at least two robots (R 1, R 2) do not share a same rotational axis, (c) manipulating at least one of the links or joints in the chain, thereby inducing manipulations of some of the other links or joints in the chain, and then (d) estimating kinematic models (M 1, M 2) for each robot (R 1, R 2) based on sensor information associated with the joints of each of the at least two robots (R 1, R 2). (a) providing at least two robots (R 1 and R 2), each robot (R 1, R 2) having joints and/or links connecting two flanges: a base flange and a tool flange, (b) forming a closed chain from the at least two robots (R 1, R 2), wherein the connecting flanges of the at least two robots (R 1, R 2) do not share a same rotational axis, (c) manipulating at least one of the links or joints in the chain, thereby inducing manipulations of some of the other links or joints in the chain, and then (d) estimating kinematic models (M 1, M 2) for each robot (R 1, R 2) based on sensor information associated with the joints of each of the at least two robots (R 1, R 2).
A temperature-raising system for a battery module that includes a heater assembly including a heater and a heater cover, the temperature-raising system comprising: a battery module that includes one or more batteries; two or more heater assemblies that are attached to the battery module using a fixing means; a temperature sensor that is connected to the battery module or to the heater assemblies and senses a temperature of the battery module; and a controller that is adapted to receive a preset target temperature, to sense the temperature of the battery module using the temperature sensor and to turn on or off the heater using a voltage of the battery module, based on the preset target temperature and the temperature of the battery module that is sensed by the temperature sensor, the preset target temperature being a temperature that the battery module is targeted to reach, characterized in that the two or more heater assemblies are connected in series with each other and that said two or more heater assemblies connected in series are attached onto a side of the battery module. a battery module that includes one or more batteries; two or more heater assemblies that are attached to the battery module using a fixing means; a temperature sensor that is connected to the battery module or to the heater assemblies and senses a temperature of the battery module; and a controller that is adapted to receive a preset target temperature, to sense the temperature of the battery module using the temperature sensor and to turn on or off the heater using a voltage of the battery module, based on the preset target temperature and the temperature of the battery module that is sensed by the temperature sensor, the preset target temperature being a temperature that the battery module is targeted to reach, characterized in that the two or more heater assemblies are connected in series with each other and that said two or more heater assemblies connected in series are attached onto a side of the battery module.
A mobile station comprising: a processor configured to spread an ACK/NACK signal or a CQI signal with a sequence defined by one of a plurality of cyclic shift values; and a transmitter configured to transmit the ACK/NACK signal or the CQI signal; the processor is further configured to use one of a first set of cyclic shift values, which form a portion of the plurality of the cyclic shift values and which are adjacent to each other, for the ACK/NACK signal, and to use one of a second set of cyclic shift values, which are not within the portion of the plurality of the cyclic shift values, for the CQI signal, characterized in that the first set of cyclic shift values and the second set of cyclic shift values being configured so that at least one cyclic shift value is not used for either the ACK/NACK signal or the CQI signal so as to suppress inter-code interference between the ACK/NACK signal or the CQI signal and another ACK/NACK signal or another CQI signal which is transmitted by another mobile station and code multiplexed with the ACK/NACK signal in a signal received at a base station. a processor configured to spread an ACK/NACK signal or a CQI signal with a sequence defined by one of a plurality of cyclic shift values; and a transmitter configured to transmit the ACK/NACK signal or the CQI signal; the processor is further configured to use one of a first set of cyclic shift values, which form a portion of the plurality of the cyclic shift values and which are adjacent to each other, for the ACK/NACK signal, and to use one of a second set of cyclic shift values, which are not within the portion of the plurality of the cyclic shift values, for the CQI signal, characterized in that the first set of cyclic shift values and the second set of cyclic shift values being configured so that at least one cyclic shift value is not used for either the ACK/NACK signal or the CQI signal so as to suppress inter-code interference between the ACK/NACK signal or the CQI signal and another ACK/NACK signal or another CQI signal which is transmitted by another mobile station and code multiplexed with the ACK/NACK signal in a signal received at a base station.
An isolated antibody which binds to an ST2 antigen having the sequence of amino acids 19-556 of SEQ ID NO:1, said antibody comprising a light chain variable domain amino acid sequence as set forth in SEQ ID NO:96 and a heavy chain variable domain amino acid sequence as set forth in SEQ ID NO:30, wherein the antibody inhibits binding of human ST2 to human IL-33 and wherein the antibody reduces human IL-33-mediated ST2 signaling in human ST2-expressing cells.
A hardware data compressor for compressing a block of characters, comprising: a first hardware engine that: finds a match of a string of characters at a current location in the block with an earlier occurrence in the block of the string of characters; determines a first size that is a total number of bits into which the matched string would be Huffman encoded as literals using a Huffman code table; calculates a back pointer from the current location to the earlier occurrence of the string; and determines a second size that is a number of bits into which the back pointer would be Huffman encoded using the Huffman code table; and a second hardware engine that Huffman encodes the matched string if the first size is less than the second size and otherwise Huffman encodes the back pointer. a first hardware engine that: finds a match of a string of characters at a current location in the block with an earlier occurrence in the block of the string of characters; determines a first size that is a total number of bits into which the matched string would be Huffman encoded as literals using a Huffman code table; calculates a back pointer from the current location to the earlier occurrence of the string; and determines a second size that is a number of bits into which the back pointer would be Huffman encoded using the Huffman code table; and finds a match of a string of characters at a current location in the block with an earlier occurrence in the block of the string of characters; determines a first size that is a total number of bits into which the matched string would be Huffman encoded as literals using a Huffman code table; calculates a back pointer from the current location to the earlier occurrence of the string; and determines a second size that is a number of bits into which the back pointer would be Huffman encoded using the Huffman code table; and a second hardware engine that Huffman encodes the matched string if the first size is less than the second size and otherwise Huffman encodes the back pointer.
A constant mesh gearbox having a plurality of individually selectable speed ratios, and comprising: a casing defining five parallel rotational axes, said axes being respectively an input axis, an output axis and three intermediate axes; gear pairs for driving between members rotatable on the input axis, the output axis and the intermediate axes; six sequential speed ratios in a first rotatable direction of an output member on said output axis, wherein said speed ratios each comprise two gear pairs between an input member on said input axis and said output member, and further comprising: a seventh sequential speed ratio comprising four gear wheel pairs between the input member and output member and an eighth sequential speed ratio comprising four gear wheel pairs between the input member and the output member. a casing defining five parallel rotational axes, said axes being respectively an input axis, an output axis and three intermediate axes; gear pairs for driving between members rotatable on the input axis, the output axis and the intermediate axes; six sequential speed ratios in a first rotatable direction of an output member on said output axis, wherein said speed ratios each comprise two gear pairs between an input member on said input axis and said output member, and further comprising: a seventh sequential speed ratio comprising four gear wheel pairs between the input member and output member and an eighth sequential speed ratio comprising four gear wheel pairs between the input member and the output member. a seventh sequential speed ratio comprising four gear wheel pairs between the input member and output member and an eighth sequential speed ratio comprising four gear wheel pairs between the input member and the output member.
A method of preparing a stable dispersion of sol-derived nano-alumina comprising dispersing the nano-alumina in a dispersion solution containing a 1,2-diol, wherein the dispersion solution contains a phenolic or amide based solvent.
A method, comprising: Receiving a first set of information from a contact sensor of an article of footwear; identifying a prompting gesture based on the first set of information; entering an enabled mode based on the prompting gesture; while in the enabled mode, receiving a second set of information from an angular velocity sensor in the article of footwear; while in the enabled mode, identifying a control gesture based on the second set of information; determining a tensioning command corresponding to the control gesture; and controlling a tensioning device of the article of footwear according to the tensioning command. Receiving a first set of information from a contact sensor of an article of footwear; identifying a prompting gesture based on the first set of information; entering an enabled mode based on the prompting gesture; while in the enabled mode, receiving a second set of information from an angular velocity sensor in the article of footwear; while in the enabled mode, identifying a control gesture based on the second set of information; determining a tensioning command corresponding to the control gesture; and controlling a tensioning device of the article of footwear according to the tensioning command.
A method for a virtual assistant, comprising: controlling, in a first operation mode, at least one sensor to sense a physical quantity, wherein the at least one sensor is arranged in a physical agent device for enabling a user to interact with the virtual assistant, and the physical quantity is an air pressure in the environment of the agent device; receiving, in the first operation mode, sensor data indicative of the physical quantity from the at least one sensor; processing, in the first operation mode, the sensor data to detect whether the sensor data exhibit a predetermined characteristic, wherein the predetermined characteristic indicates positioning of the agent device below a predetermined height with respect to the ground; and if the predetermined characteristic is detected in the sensor data, setting the operation mode of the virtual assistant to a second operation mode assigned to the predetermined characteristic, wherein the second operation mode is a child mode with limited functionality and/or a dedicated sound profile compared to a fully operational mode of the virtual assistant. controlling, in a first operation mode, at least one sensor to sense a physical quantity, wherein the at least one sensor is arranged in a physical agent device for enabling a user to interact with the virtual assistant, and the physical quantity is an air pressure in the environment of the agent device; receiving, in the first operation mode, sensor data indicative of the physical quantity from the at least one sensor; processing, in the first operation mode, the sensor data to detect whether the sensor data exhibit a predetermined characteristic, wherein the predetermined characteristic indicates positioning of the agent device below a predetermined height with respect to the ground; and if the predetermined characteristic is detected in the sensor data, setting the operation mode of the virtual assistant to a second operation mode assigned to the predetermined characteristic, wherein the second operation mode is a child mode with limited functionality and/or a dedicated sound profile compared to a fully operational mode of the virtual assistant.