mhurhangee/ep-ind-claims huggingface dataset:
A system for determining a handover between at least two energy directing elements (102A, 102B), the system comprising: two or more energy directing elements (102A, 102B) that have a common overlap area defining an area that is coverable by a direction of said two or more energy directing elements wherein one of the energy directing elements is an active energy directing element that aims on and tracks a target; a handover decision module configured to: obtain a plurality of handover parameters including the position, speed and pattern of movement of the target monitored over time, and therefrom learning and predicting the target's movement and trajectory; determine, based on the obtained handover parameters and a plurality of handover rules including a rule for reducing a number of unnecessary handovers, a handover point within the overlap area in which to handover between the active energy directing element to one other of said at least two energy directing elements; and a controller configured to carry out the handover between the energy directing elements based on the determined handover point. two or more energy directing elements (102A, 102B) that have a common overlap area defining an area that is coverable by a direction of said two or more energy directing elements wherein one of the energy directing elements is an active energy directing element that aims on and tracks a target; a handover decision module configured to: obtain a plurality of handover parameters including the position, speed and pattern of movement of the target monitored over time, and therefrom learning and predicting the target's movement and trajectory; determine, based on the obtained handover parameters and a plurality of handover rules including a rule for reducing a number of unnecessary handovers, a handover point within the overlap area in which to handover between the active energy directing element to one other of said at least two energy directing elements; and a controller configured to carry out the handover between the energy directing elements based on the determined handover point. obtain a plurality of handover parameters including the position, speed and pattern of movement of the target monitored over time, and therefrom learning and predicting the target's movement and trajectory; determine, based on the obtained handover parameters and a plurality of handover rules including a rule for reducing a number of unnecessary handovers, a handover point within the overlap area in which to handover between the active energy directing element to one other of said at least two energy directing elements; and a controller configured to carry out the handover between the energy directing elements based on the determined handover point.
An engine lubrication system comprising: an oil pump configured to be driven by an engine; an oil jet mechanism (17a to 17f) configured to inject oil fed or pressure-fed by the oil pump to a piston; and control means configured to set a target hydraulic pressure of the oil injected from the oil jet mechanism (17a to 17f) according to an operation state of the engine, wherein the control means has a hydraulic pressure state determination section configured to determine a hydraulic pressure state of the oil injected from the oil jet mechanism (17a to 17f), and characterised in that it comprises an automatic transmission and in that the control means is configured to control the automatic transmission to downshift or is configured to change a gear stage of the automatic transmission to a lower gear stage, when the hydraulic pressure state determination section determines a hydraulic pressure insufficient state where an actual hydraulic pressure of the oil that is actually injected from the oil jet mechanism (17a to 17f) is insufficient for the target hydraulic pressure. an oil pump configured to be driven by an engine; an oil jet mechanism (17a to 17f) configured to inject oil fed or pressure-fed by the oil pump to a piston; and control means configured to set a target hydraulic pressure of the oil injected from the oil jet mechanism (17a to 17f) according to an operation state of the engine, wherein the control means has a hydraulic pressure state determination section configured to determine a hydraulic pressure state of the oil injected from the oil jet mechanism (17a to 17f), and characterised in that it comprises an automatic transmission and in that the control means is configured to control the automatic transmission to downshift or is configured to change a gear stage of the automatic transmission to a lower gear stage, when the hydraulic pressure state determination section determines a hydraulic pressure insufficient state where an actual hydraulic pressure of the oil that is actually injected from the oil jet mechanism (17a to 17f) is insufficient for the target hydraulic pressure.
A rounding machine for rounding food-dough pieces comprising: a conveying device for conveying a food-dough piece; and a pair of shaping plates (11, 13) that are arranged above the conveying device such that they extend along a longitudinal direction parallel to the conveying direction of the conveying device; wherein at least one of the shaping plates (11, 13) includes a dough-holding section (17, 21) that is provided with a concave forming face (18A, 19A, 22A, 23A) on the inside that is opposite to another shaping plate; wherein the pair of shaping plates (11, 13) are movable along a moving locus, wherein the moving locus has a longitudinal component in which the shaping plates (11, 13) are moved relatively in directions opposite to each other, along the longitudinal direction, and a width component in which the shaping plates (11, 13) move relatively to approach, and retract from, each other, along a widthwise direction perpendicular to the longitudinal direction; characterized in that the forming face (18A, 19A, 22A, 23A) has an outwardly concave shape relative to the conveying direction in a plan view, such that a part of the forming face is displaced outwardly and another part of the forming face is displaced inwardly relative to the conveying direction in a plan view. a conveying device for conveying a food-dough piece; and a pair of shaping plates (11, 13) that are arranged above the conveying device such that they extend along a longitudinal direction parallel to the conveying direction of the conveying device; wherein at least one of the shaping plates (11, 13) includes a dough-holding section (17, 21) that is provided with a concave forming face (18A, 19A, 22A, 23A) on the inside that is opposite to another shaping plate; wherein the pair of shaping plates (11, 13) are movable along a moving locus, wherein the moving locus has a longitudinal component in which the shaping plates (11, 13) are moved relatively in directions opposite to each other, along the longitudinal direction, and a width component in which the shaping plates (11, 13) move relatively to approach, and retract from, each other, along a widthwise direction perpendicular to the longitudinal direction; characterized in that the forming face (18A, 19A, 22A, 23A) has an outwardly concave shape relative to the conveying direction in a plan view, such that a part of the forming face is displaced outwardly and another part of the forming face is displaced inwardly relative to the conveying direction in a plan view.
Pharmaceutical dosage form of the active substance 3-Z-[1-(4-(N-((4-methyl-piperazin-1-yl)-methylcarbonyl)-N-methyl-amino)-anilino)-1-phenyl-methylene]-6-methoxycarbonyl-2-indolinone-monoethanesulphonate, which delivers an immediate release profile in which not less than 70% (Q65%) of the active substance is dissolved in 60 minutes in vitro under the following in vitro dissolution conditions according to European Pharmacopeia 6.2: Apparatus 2 (paddle), dissolution medium with 0.1 M HCl (pH 1) and stirring speed of 50 to 150 rpm, at a temperature of 37°C and which comprises a viscous lipid suspension formulation comprising 10 to 50 weight % of the active substance, 10 to 70 weight % of medium chain triglycerides, 1 to 30% weight % of hard fat and 0.1 to 10 weight % of lecithin, based on the total weight of the viscous lipid suspension formulation.
Electric machine - wherein the electric machine has a rotor which is rotatably supported in bearings, so that the rotor is able to be rotated about an axis of rotation, - wherein the electric machine has a stator which radially surrounds the rotor on the outside with respect to the axis of rotation, - wherein the stator consists of stator sheets (5, 6) which are stacked one on the other, viewed in the direction of the axis of rotation, - wherein the stator sheets (5, 6), with respect to the axis of rotation, have a number of recesses radially on the outside, which in the totality thereof form grooves running in parallel to the axis of rotation, - wherein tension strips are arranged in the grooves, which are connected at their ends with end rings, - wherein the stator sheets (5, 6) at least include first stator sheets, - characterised in that the first stator sheets each have at least one large lug, which projects radially outwards between the two tension strips adjacent to the large lug viewed in the circumferential direction about the axis of rotation over the two adjacent tension strips and has cantilevers extending there about the axis of rotation which reach over the two adjacent tension strips. - wherein the electric machine has a rotor which is rotatably supported in bearings, so that the rotor is able to be rotated about an axis of rotation, - wherein the electric machine has a stator which radially surrounds the rotor on the outside with respect to the axis of rotation, - wherein the stator consists of stator sheets (5, 6) which are stacked one on the other, viewed in the direction of the axis of rotation, - wherein the stator sheets (5, 6), with respect to the axis of rotation, have a number of recesses radially on the outside, which in the totality thereof form grooves running in parallel to the axis of rotation, - wherein tension strips are arranged in the grooves, which are connected at their ends with end rings, - wherein the stator sheets (5, 6) at least include first stator sheets, - characterised in that the first stator sheets each have at least one large lug, which projects radially outwards between the two tension strips adjacent to the large lug viewed in the circumferential direction about the axis of rotation over the two adjacent tension strips and has cantilevers extending there about the axis of rotation which reach over the two adjacent tension strips.
A method performed in a second network node (13,14) for detecting a short stay handover of a user equipment in a second cell in a telecommunication system, which user equipment is handed over from a first cell of a first network node to the second cell and from the second cell to a third cell in the telecommunication system, characterised by: - receiving a time threshold from the first network node (12,18); and - sending (1106,1203), to the first network node (12,18), an indication in a message that a short stay handover has occurred when determined that the user equipment is handed over to the third cell before the time threshold, thereby enabling the first network node (12,18) to detect the short stay handover, and wherein the message further comprises an identity of the third cell, and further a cell size of the second and/or the third cell, and/or a speed of the user equipment. - receiving a time threshold from the first network node (12,18); and - sending (1106,1203), to the first network node (12,18), an indication in a message that a short stay handover has occurred when determined that the user equipment is handed over to the third cell before the time threshold, thereby enabling the first network node (12,18) to detect the short stay handover, and wherein the message further comprises an identity of the third cell, and further a cell size of the second and/or the third cell, and/or a speed of the user equipment.
Method for measuring the chirality of molecules in a sample of chiral molecules, the sample comprising at least one chemical species, wherein the method comprises the following steps: - introducing the sample of chiral molecules into an ionization area; - ionizing the molecules by means of an electromagnetic radiation in the ionization area; and - detecting a distribution of electrons produced by the ionization and emitted to the front and to the back of the ionization area with respect to the axis, z, of propagation of the electromagnetic radiation; characterized in that the electromagnetic radiation is elliptically polarized, wherein the polarization ellipticity of the radiation varies continuously and periodically as a function of time, wherein the method is moreover characterized in that it comprises a step of: - determining the chirality of the molecules from the electron distribution detected continuously as a function of time. - introducing the sample of chiral molecules into an ionization area; - ionizing the molecules by means of an electromagnetic radiation in the ionization area; and - detecting a distribution of electrons produced by the ionization and emitted to the front and to the back of the ionization area with respect to the axis, z, of propagation of the electromagnetic radiation; - determining the chirality of the molecules from the electron distribution detected continuously as a function of time.
A method performed by a wireless device configured to transmit feedback in a 3GPP Non-Terrestrial Network, NTN, the method comprising: being configured, by a network node, with at least one feedback enabled Hybrid Automatic Repeat Request, HARQ, process while remaining HARQ processes of the wireless device have the feedback disabled; receiving an indication of a number of slots, X, as part of a System Information Block, SIB, wherein X is specific to a delay associated with HARQ Acknowledgement/Negative Acknowledgement, ACK/NACK, feedback; receiving, from the network node, a first Physical Downlink Shared Channel, PDSCH, carrying a Medium Access Control, MAC, Control Element, CE, activation/deactivation command requiring a HARQ ACK/NACK feedback on a Physical Uplink Control Channel, PUCCH, using the at least one feedback enabled HARQ process; transmitting the HARQ ACK/NACK feedback on the PUCCH in a slot n corresponding to the first PDSCH on the PUCCH; determining a delay term via multiplying X by a number of slots per subframe for a subcarrier spacing, SCS, μ associated with the PUCCH; and wherein the information related to the MAC CE activation/deactivation command is applied at the wireless device from a slot n' where the slot n' is after a delay given by the determined delay term from the slot n. being configured, by a network node, with at least one feedback enabled Hybrid Automatic Repeat Request, HARQ, process while remaining HARQ processes of the wireless device have the feedback disabled; receiving an indication of a number of slots, X, as part of a System Information Block, SIB, wherein X is specific to a delay associated with HARQ Acknowledgement/Negative Acknowledgement, ACK/NACK, feedback; receiving, from the network node, a first Physical Downlink Shared Channel, PDSCH, carrying a Medium Access Control, MAC, Control Element, CE, activation/deactivation command requiring a HARQ ACK/NACK feedback on a Physical Uplink Control Channel, PUCCH, using the at least one feedback enabled HARQ process; transmitting the HARQ ACK/NACK feedback on the PUCCH in a slot n corresponding to the first PDSCH on the PUCCH; determining a delay term via multiplying X by a number of slots per subframe for a subcarrier spacing, SCS, μ associated with the PUCCH; and wherein the information related to the MAC CE activation/deactivation command is applied at the wireless device from a slot n' where the slot n' is after a delay given by the determined delay term from the slot n.
A cosmetics applicator, particularly in the form of a mascara applicator, with a cap, which forms a grip surface, for tightly sealing a cosmetics storage container, which cap transitions integrally into a shaft protruding from it, which in turn integrally forms a stem portion and a bristle-carrying portion, wherein the bristle-carrying portion as such is configured to be hollow inside and carries injection-molded bristles which, through the wall of the bristle-carrying portion, are integrally connected with a plastic core that internally lines or fills the bristle-carrying portion inside, wherein the cap and the shaft are preferably made of a different plastic material than the plastic core and the bristles, wherein the cavity of the bristle-carrying portion, at the end face of the bristle-carrying portion facing away from the cap, is open towards the outside at its end face, characterized in that the stem portion is at least partially hollow and has a separating portion that separates its cavity in a tight manner from the cavity of the bristle-carrying portion.
An implant consisting entirely or in part of a biocorrodible magnesium alloy having the composition Gd: 2.7-15.0 wt%, Zn: 0.1-0.5 wt%, Zr: 0.2-1.0 wt%, Nd: 0-4.5 wt%, Y: 0.05 -2.0 wt%, where magnesium and impurities due to the production process account for the remainder to a total of 100 wt%.
A semiconductor device comprising a driver circuit adapted to drive a power semiconductor element arranged between a positive electrode terminal of a power supply and a load, the driver circuit including: a booster circuit which generates the gate voltage when the power semiconductor element is turned on, wherein the driver circuit further includes a timer circuit which starts counting when a current flows in the power semiconductor element, characterized in that the booster circuit comprises a gate voltage reduction circuit (17a; 17b) adapted to reduce the gate voltage of the power semiconductor element generated by the booster circuit; and wherein the timer circuit is adapted to activate the gate voltage reduction circuit (17a; 17b) after a certain time from the start of counting such that the booster circuit reduces the current-carrying capability of the power semiconductor element. a booster circuit which generates the gate voltage when the power semiconductor element is turned on, wherein the driver circuit further includes a timer circuit which starts counting when a current flows in the power semiconductor element, characterized in that the booster circuit comprises a gate voltage reduction circuit (17a; 17b) adapted to reduce the gate voltage of the power semiconductor element generated by the booster circuit; and wherein the timer circuit is adapted to activate the gate voltage reduction circuit (17a; 17b) after a certain time from the start of counting such that the booster circuit reduces the current-carrying capability of the power semiconductor element.
A system for detecting an approaching train on an active railroad track or an adjacent track and providing an alert to roadway workers near a section of one or more of said tracks over a secure wireless network, the system comprising: at least one train detector cone (105, 201) operable to detect an approaching train and transmit an alert signal in response; and at least one personnel warning cone (106, 202, 203, 204) operable to receive said alert signal and generate an audible alert warning, a visual alert warning, or combinations thereof, in response, wherein: said at least one train detector cone (105, 201) comprises a sensor unit comprising a plurality of simultaneously active sensors (501, 502, 503, 504, 506, 507) for detecting an oncoming train, a low power radio transceiver operable to transmit said alert signal, and a microprocessor operable to monitor data received from at least one of said plurality of sensors (501, 502, 503, 504, 506, 507) and to execute instructions directing the operation of said train detector cone (105, 201); said at least one train detector cone (105, 201) is configured to transmit a tilt alert signal to said at least one personnel warning cone (106, 202, 203, 204) upon detection of a change in orientation of said at least one train detector cone (105, 201), the tilt alert signal alerting the at least one personnel warning cone (106, 202, 203, 204) that the at least one train detector cone (105, 201) needs corrective action. said at least one train detector cone (105, 201) comprises a sensor unit comprising a plurality of simultaneously active sensors (501, 502, 503, 504, 506, 507) for detecting an oncoming train, a low power radio transceiver operable to transmit said alert signal, and a microprocessor operable to monitor data received from at least one of said plurality of sensors (501, 502, 503, 504, 506, 507) and to execute instructions directing the operation of said train detector cone (105, 201); said at least one train detector cone (105, 201) is configured to transmit a tilt alert signal to said at least one personnel warning cone (106, 202, 203, 204) upon detection of a change in orientation of said at least one train detector cone (105, 201), the tilt alert signal alerting the at least one personnel warning cone (106, 202, 203, 204) that the at least one train detector cone (105, 201) needs corrective action.
A method for wireless communications by a user equipment, UE,, comprising: providing, to a wireless local area network, WLAN, an indication, when the UE decides to connect to a wireless wide area network, WWAN, via the wireless local area network, WLAN, that the UE is capable of supporting multiple packet data network, PDN, connections, wherein the WLAN is a trusted WLAN, TWAN, with respect to the WWAN operator; said providing comprises including an indication of an access point name, APN, and a handover indication in an extensible authentication protocol, EAP, response to provide for IP preservation during a handover between WWAN and TWAN, wherein the APN identifies the APN that the UE seeks to connect to as a first connection; receiving an EAP Request/Success message from the TWAN indicating that the TWAN supports multiple PDN connections with or without Non-Seamless Wireless LAN Offload, NSWO; obtaining at the UE one or more PDN identifiers to identify a tunnel between the UE and the TWAN carrying a control protocol; and utilizing the control protocol carried over the identified tunnel for management functions over the TWAN to establish and manage multiple PDN connections through the TWAN, wherein each of the multiple PDN connections is established via a respective PDN connectivity establishment procedure, wherein the indication of the access point name, APN, and the handover indication are included by the UE in a signaling to the TWAN for each respective PDN connectivity establishment procedure. providing, to a wireless local area network, WLAN, an indication, when the UE decides to connect to a wireless wide area network, WWAN, via the wireless local area network, WLAN, that the UE is capable of supporting multiple packet data network, PDN, connections, wherein the WLAN is a trusted WLAN, TWAN, with respect to the WWAN operator; said providing comprises including an indication of an access point name, APN, and a handover indication in an extensible authentication protocol, EAP, response to provide for IP preservation during a handover between WWAN and TWAN, wherein the APN identifies the APN that the UE seeks to connect to as a first connection; receiving an EAP Request/Success message from the TWAN indicating that the TWAN supports multiple PDN connections with or without Non-Seamless Wireless LAN Offload, NSWO; obtaining at the UE one or more PDN identifiers to identify a tunnel between the UE and the TWAN carrying a control protocol; and utilizing the control protocol carried over the identified tunnel for management functions over the TWAN to establish and manage multiple PDN connections through the TWAN, wherein each of the multiple PDN connections is established via a respective PDN connectivity establishment procedure, wherein the indication of the access point name, APN, and the handover indication are included by the UE in a signaling to the TWAN for each respective PDN connectivity establishment procedure.