mhurhangee/ep-ind-claims huggingface dataset:
Method for the operation of an electric machine wherein, through the method, a value of a maximum initial torque that can be provided by the electric machine in a future interval is calculated, wherein by limiting the torque provided in the interval to the value, an overheating of at least one of the at least one semiconductors required for transmission of the electrical power resulting from a power loss is prevented; wherein the method comprises at least the following steps: a) ascertaining electrical parameters with which the electric machine is being operated at a current time point; b) calculating a maximum second torque that can be generated by the electric machine at these parameters; characterized in that the method in addition comprises the following steps: c) calculating an electrical power loss that would arise at the at least one semiconductor if the maximum second torque that can be generated is applied; d) calculating a resulting first temperature of a semiconductor junction layer of the at least one semiconductor that would result from the electrical power loss present during the interval; e) iterative performance of steps b) to d) with smaller and smaller values of the maximum second torque that can be generated according to step b) until the resulting first temperature that is calculated in accordance with step d) corresponds at most to a maximum permissible second temperature of the semiconductor junction layer, and then f) operating the electric machine in the interval with a torque whose value is at most that ascertained by the method or, if the electric machine is operated with a higher torque, shortening the interval and operating the electric machine with the higher torque during the shortened interval. a) ascertaining electrical parameters with which the electric machine is being operated at a current time point; b) calculating a maximum second torque that can be generated by the electric machine at these parameters; c) calculating an electrical power loss that would arise at the at least one semiconductor if the maximum second torque that can be generated is applied; d) calculating a resulting first temperature of a semiconductor junction layer of the at least one semiconductor that would result from the electrical power loss present during the interval; e) iterative performance of steps b) to d) with smaller and smaller values of the maximum second torque that can be generated according to step b) until the resulting first temperature that is calculated in accordance with step d) corresponds at most to a maximum permissible second temperature of the semiconductor junction layer, and then f) operating the electric machine in the interval with a torque whose value is at most that ascertained by the method or, if the electric machine is operated with a higher torque, shortening the interval and operating the electric machine with the higher torque during the shortened interval.
A insertion system comprising: a gripper to grip a module; a compliance element to provide movement along an XY axis and (theta) rotation; alignment fingers to align the gripper to a socket, prior to a first stage insertion control inserting the module into the socket; the first stage insertion control to insert the module into the socket, to a first level; a second stage insertion control to complete the insertion of the module into the socket, when the first stage insertion control indicates that the module is aligned to the socket, the second level insertion control exerts enough force to complete the insertion of the module into the socket. a gripper to grip a module; a compliance element to provide movement along an XY axis and (theta) rotation; alignment fingers to align the gripper to a socket, prior to a first stage insertion control inserting the module into the socket; the first stage insertion control to insert the module into the socket, to a first level; a second stage insertion control to complete the insertion of the module into the socket, when the first stage insertion control indicates that the module is aligned to the socket, the second level insertion control exerts enough force to complete the insertion of the module into the socket.
Radar detection method, using an impulse radar waveform, a pulse being subdivided into N contiguous sub-pulses (41, 42, 43, 44) each having its own modulated carrier frequency (F1, F2, F3, F4) according to a modulation code in a frequency band, N being greater or equal to two, said method comprising the following steps: - creating by filtering N receiving channels, each adapted to a sub-pulse (41, 42, 43, 44); - implementing in each channel a compression of said sub-pulse; - realigning in time the compressed sub-pulses (41', 42', 43', 44'); the detected useful signal being obtained from the result of a combination function of the realigned compressed signals in N distance bins ( c 1 i, c 2 i,..., cN i), a distance bin corresponding to each of the N pulse compressions, the combination function depending on the rank of the distance bin where said function is applied, characterised in that at least three distance zones being defined beforehand, the result of the combination function is: - the compressed signal of the last sub-pulse for the distance bins corresponding to the short-distance zone; - the minimum of a function of the amplitudes Ai of the N compressions for the distance bins pertaining to the medium-distance zone; - the mean of a function of the amplitudes Ai of the N compressions for the distance bins pertaining to the long-distance zone; Ai being the amplitude of the compressed signal for the i th sub-pulse. - creating by filtering N receiving channels, each adapted to a sub-pulse (41, 42, 43, 44); - implementing in each channel a compression of said sub-pulse; - realigning in time the compressed sub-pulses (41', 42', 43', 44'); - the compressed signal of the last sub-pulse for the distance bins corresponding to the short-distance zone; - the minimum of a function of the amplitudes Ai of the N compressions for the distance bins pertaining to the medium-distance zone; - the mean of a function of the amplitudes Ai of the N compressions for the distance bins pertaining to the long-distance zone;
Connecting means with an elongate flexible element and with a guide (10, 51, 52, 61) with a guide inlet (13, 53, 55, 62) and a guide outlet (14, 54, 56, 63) through which an element portion (20, 65) of the elongate flexible element is pulled through in a pull-through direction, with an elongate pin (12, 46, 47, 48, 57, 57a, 64) being arranged on the guide outlet (14, 54, 56, 63), with a pin longitudinal direction being aligned in the pull-through direction, and with a free portion on which an end portion of the element portion (20, 65) is tightly knotted and thus is secured against slipping through out of the guide (10, 51, 52, 61) counter to the pull-through direction, characterised in that the pin (12, 46, 47, 48, 57, 57a, 64) is constructed as a rod-shaped hollow or solid profile, and wherein the pin (12, 46, 47, 48, 57, 57a, 64) is also connected under compressive and tensile loading in a fixed position to the guide (10, 51, 52, 61), and that after use of the connecting means the knot can be pulled off from the pin (12, 46, 47, 48, 57, 57a, 64), and in that the knot is releasable particularly easily due to the free space produced inside the knot by the pulling out of the pin (12, 46, 47, 48, 57, 57a, 64).
A mass spectrometer including a virtual multipole rod type ion transport optical system in which 2N, where N is an integer equal to or more than two, virtual rod electrodes are placed in such a manner as to surround an ion optical axis, each of the virtual rod electrodes being composed of M, where M is an integer more than two, electrode plain plates separated from each other in the ion optical axis direction, characterized in that: the M electrode plain plates composing one virtual rod electrode are arranged in such a manner that a number of kinds of an interval between electrode plain plates adjacent in the ion optical axis direction is at least more than one and an interval between adjacent electrode plain plates at an ion injection side is larger than an interval between adjacent electrode plain plates at an ion exit side. the M electrode plain plates composing one virtual rod electrode are arranged in such a manner that a number of kinds of an interval between electrode plain plates adjacent in the ion optical axis direction is at least more than one and an interval between adjacent electrode plain plates at an ion injection side is larger than an interval between adjacent electrode plain plates at an ion exit side.
A multi-channel working cannula, wherein the cannula includes a guide tube unit including a main guide tube and an accessory guide tube with the main guide tube and the accessory guide tube integrally arranged; wherein one end of the guide tube unit is the inlet end, and the other end is the outlet end wherein the inlet end of the guide tube unit is provided with a guide plate, the guide plate being provided with a first through hole that is adapted to the guide tube unit, the inlet end of the guide tube unit being inserted into the first through hole, and the guide tube unit being fixedly connected to the guide plate; wherein the length of the main guide tube is greater than that of the accessory guide tube, and an outlet end of the accessory guide tube is attached to an outer side wall of the main guide tube at an attachment site; the multi-channel working cannula being characterized in that, an endoscope view hole is provided through the outer side wall of the main guide tube, at the attachment site of the outlet end of the accessory guide tube, such that an instrument in the main guide tube can be more easily observed through the accessory guide tube; wherein the endoscope view hole is an elongated hole and extends along the length direction of the accessory guide tube. wherein the cannula includes a guide tube unit including a main guide tube and an accessory guide tube with the main guide tube and the accessory guide tube integrally arranged; wherein one end of the guide tube unit is the inlet end, and the other end is the outlet end wherein the inlet end of the guide tube unit is provided with a guide plate, the guide plate being provided with a first through hole that is adapted to the guide tube unit, the inlet end of the guide tube unit being inserted into the first through hole, and the guide tube unit being fixedly connected to the guide plate; wherein the length of the main guide tube is greater than that of the accessory guide tube, and an outlet end of the accessory guide tube is attached to an outer side wall of the main guide tube at an attachment site; the multi-channel working cannula being characterized in that, an endoscope view hole is provided through the outer side wall of the main guide tube, at the attachment site of the outlet end of the accessory guide tube, such that an instrument in the main guide tube can be more easily observed through the accessory guide tube; wherein the endoscope view hole is an elongated hole and extends along the length direction of the accessory guide tube.
Electrostatic atomizer for liquids, especially cosmetics, wherein the atomizer comprises - a housing, - an electrical power source, - activating means, - a control electronics, - a high voltage source, - a liquid tank, - a conveying device and - atomizer nozzles (102a - 102h), - wherein the delivery device is arranged between the liquid tank and the atomizer nozzles (102a - 102h), - wherein the delivery device is connected to the liquid tank by a first conduit, and - wherein the delivery device draws liquid from the liquid tank and delivers it to the atomizer nozzles (102a - 102h), characterized in that - the conveying device is connected to the atomizer nozzles (102a - 102h) by a second conduit, - the first conduit, the second conduit and a delivery hose are formed in one piece and are formed as a connecting hose - the first conduit as well as the second conduit comprises several hoses and one hose per atomizer nozzle (102a - 102h) leads from the nozzle through the conveying device to the liquid tank. - a housing, - an electrical power source, - activating means, - a control electronics, - a high voltage source, - a liquid tank, - a conveying device and - atomizer nozzles (102a - 102h), - wherein the delivery device is arranged between the liquid tank and the atomizer nozzles (102a - 102h), - wherein the delivery device is connected to the liquid tank by a first conduit, and - wherein the delivery device draws liquid from the liquid tank and delivers it to the atomizer nozzles (102a - 102h), - the conveying device is connected to the atomizer nozzles (102a - 102h) by a second conduit, - the first conduit, the second conduit and a delivery hose are formed in one piece and are formed as a connecting hose - the first conduit as well as the second conduit comprises several hoses and one hose per atomizer nozzle (102a - 102h) leads from the nozzle through the conveying device to the liquid tank.
A method for obtaining, by a user equipment, UE, a redistribution statistic in a wireless communication system, the method being characterized by: receiving a list of frequencies and distribution parameters related to the frequencies, from a network, wherein the distribution parameters include probability values; obtaining the redistribution statistic, by dividing at least one distribution parameter related to at least one carrier frequency that can be detected/used by the UE among the distribution parameters by a sum of the at least one distribution parameter related to the at least one carrier frequency that can be detected/used by the UE, wherein the redistribution statistic includes at least one probability value of the at least one carrier frequency that can be detected/used by the UE; and performing a redistribution procedure, based on the obtained redistribution statistic. receiving a list of frequencies and distribution parameters related to the frequencies, from a network, wherein the distribution parameters include probability values; obtaining the redistribution statistic, by dividing at least one distribution parameter related to at least one carrier frequency that can be detected/used by the UE among the distribution parameters by a sum of the at least one distribution parameter related to the at least one carrier frequency that can be detected/used by the UE, wherein the redistribution statistic includes at least one probability value of the at least one carrier frequency that can be detected/used by the UE; and performing a redistribution procedure, based on the obtained redistribution statistic.
A method of operation of a Base Station, BS, in a wireless telecommunications network, the method comprising: receiving a group authentication request message, the group authentication request message comprising a group identifier; identifying a set of User Equipments, UEs, as belonging to a group identified by the group identifier, the set containing at least one UE, wherein identifying the set of UEs comprises at least one of: using mapping information received from a Mobility Management Entity, MME, that maps the group identifier to the set of UEs, or using mapping information inferred by the BS from messages exchanged between the MME and the set of UEs; sending (310, 312, 314) an individual authentication request message to each identified UE; receiving (320, 326) an authentication response from at least one of the identified UE; aggregating (322, 328, 332) the received at least one authentication response to create a group authentication response message where: the aggregating step comprises performing aggregation for a specified duration of time, or the aggregating step is performed until a specified number of authentication responses are received; and sending the group authentication response message. receiving a group authentication request message, the group authentication request message comprising a group identifier; identifying a set of User Equipments, UEs, as belonging to a group identified by the group identifier, the set containing at least one UE, wherein identifying the set of UEs comprises at least one of: using mapping information received from a Mobility Management Entity, MME, that maps the group identifier to the set of UEs, or using mapping information inferred by the BS from messages exchanged between the MME and the set of UEs; using mapping information received from a Mobility Management Entity, MME, that maps the group identifier to the set of UEs, or using mapping information inferred by the BS from messages exchanged between the MME and the set of UEs; sending (310, 312, 314) an individual authentication request message to each identified UE; receiving (320, 326) an authentication response from at least one of the identified UE; aggregating (322, 328, 332) the received at least one authentication response to create a group authentication response message where: the aggregating step comprises performing aggregation for a specified duration of time, or the aggregating step is performed until a specified number of authentication responses are received; and the aggregating step comprises performing aggregation for a specified duration of time, or the aggregating step is performed until a specified number of authentication responses are received; and sending the group authentication response message.
A printer, comprising: a printer body including a print head; a lid connected to the printer body so as to be opened and closed relative to the printer body; a cutter including a fixed blade and a movable blade that cuts recording paper; a fixed blade unit provided in the printer body, the fixed blade unit including the fixed blade; a movable blade unit provided on the lid, the movable blade unit including the movable blade; and a gimbal plate attached to the lid and to which the movable blade unit is connected, wherein a paper discharge opening through which the recording paper is discharged is formed by a gap between the printer body and an end of the lid, the lid includes a first recording paper guide projecting toward the movable blade, the first recording paper guide being positioned at the end of the lid, and the gimbal plate includes a second recording paper guide projecting toward the movable blade, the second recording paper guide being positioned at an end of the gimbal plate facing the paper discharge opening. wherein the first recording paper guide and the second recording paper guide are formed between the movable blade and the lid. a printer body including a print head; a lid connected to the printer body so as to be opened and closed relative to the printer body; a cutter including a fixed blade and a movable blade that cuts recording paper; a fixed blade unit provided in the printer body, the fixed blade unit including the fixed blade; a movable blade unit provided on the lid, the movable blade unit including the movable blade; and a gimbal plate attached to the lid and to which the movable blade unit is connected, wherein a paper discharge opening through which the recording paper is discharged is formed by a gap between the printer body and an end of the lid, the lid includes a first recording paper guide projecting toward the movable blade, the first recording paper guide being positioned at the end of the lid, and the gimbal plate includes a second recording paper guide projecting toward the movable blade, the second recording paper guide being positioned at an end of the gimbal plate facing the paper discharge opening. wherein the first recording paper guide and the second recording paper guide are formed between the movable blade and the lid.
A valve assembly for pressurized containers, comprising a main structure, a rotary control element which is rotatably connected to the main structure and which is configured so as to allow a gas flow through the valve assembly in accordance with an angular position (α) of said rotary control element about a main rotation axis, a detection device which includes an angular position sensor and a movable member, the angular position sensor being configured to detect the angular position of the movable member about an auxiliary rotation axis, wherein the movable member is rotatably supported on the main structure and the angular position sensor is fixed to the main structure, wherein the valve assembly further comprises a movement conversion mechanism which is configured so as to convert the movement of the rotary control element about the main axis into a corresponding rotational movement of the movable member about the auxiliary axis, the auxiliary axis being different with respect to the main rotation axis, the valve assembly being characterized in that the angular position sensor is a TMR magnetic tunnel effect angle sensor and the movable member comprises a substantially disk-like magnet, the magnet being coaxial with the auxiliary rotation axis.
Ventilation device intended for generating a flow of air through at least one motor vehicle heat exchanger (1; 1a, 1b, 1c), the ventilation device comprising: - a first plurality of ducts (8 1), - at least one first air manifold having orifices, each duct of the first plurality of ducts (8 1) opening at one of its ends in a separate orifice of the at least one first air manifold, each duct of said first plurality of ducts (8 1) having at least one passage opening (16; 40) for a flow of air passing through said duct (8 1), the opening (16; 40) being separate from the ends of the corresponding duct (8 1), the opening (16; 40) being located outside said at least one first air manifold, - a second plurality of ducts (8 2), the device being characterized in that it comprises - at least one second air manifold having orifices, each duct of the second plurality of ducts (8 2) opening at one of its ends in a separate orifice of the at least one second air manifold, each duct of said second plurality of ducts (8 2) having at least one passage opening (16; 40) for a flow of air passing through said duct (8 2), the opening (16; 40) being separate from the ends of the corresponding duct (8 2), the opening (16; 40) being located outside said at least one second air manifold, wherein the ducts of the first plurality of ducts (8 1) and/or of the second plurality of ducts (8 2) are pivotable about a respective longitudinal axis, independently of said second plurality of ducts (8 2) or of the first plurality of ducts (8 1), respectively. - a first plurality of ducts (8 1), - at least one first air manifold having orifices, each duct of the first plurality of ducts (8 1) opening at one of its ends in a separate orifice of the at least one first air manifold, each duct of said first plurality of ducts (8 1) having at least one passage opening (16; 40) for a flow of air passing through said duct (8 1), the opening (16; 40) being separate from the ends of the corresponding duct (8 1), the opening (16; 40) being located outside said at least one first air manifold, - a second plurality of ducts (8 2), the device being characterized in that it comprises - at least one second air manifold having orifices, each duct of the second plurality of ducts (8 2) opening at one of its ends in a separate orifice of the at least one second air manifold, each duct of said second plurality of ducts (8 2) having at least one passage opening (16; 40) for a flow of air passing through said duct (8 2), the opening (16; 40) being separate from the ends of the corresponding duct (8 2), the opening (16; 40) being located outside said at least one second air manifold,