mhurhangee/ep-ind-claims huggingface dataset:
A power amplifier module having a bias circuit, the power amplifier module comprising: an amplifier unit receiving a bias power to amplify an input signal; and a bias unit supplying the bias power to the amplifier, by differently setting an impedance between an input signal terminal transmitting the input signal therethrough and a reference power terminal transmitting a reference power having a predetermined voltage level and an impedance between the input signal terminal and a ground wherein the bias unit includes: at least one first NMOS transistor connected in series between the input signal terminal and the ground, and having a drain and a gate connected to the input signal terminal and a source connected to the ground together with the gate; and at least one second NMOS transistor connected in series between the input signal terminal and the reference power terminal, and having a drain and a gate connected to the reference power terminal and a source connected to the input signal terminal together with the gate. an amplifier unit receiving a bias power to amplify an input signal; and a bias unit supplying the bias power to the amplifier, by differently setting an impedance between an input signal terminal transmitting the input signal therethrough and a reference power terminal transmitting a reference power having a predetermined voltage level and an impedance between the input signal terminal and a ground wherein the bias unit includes: at least one first NMOS transistor connected in series between the input signal terminal and the ground, and having a drain and a gate connected to the input signal terminal and a source connected to the ground together with the gate; and at least one second NMOS transistor connected in series between the input signal terminal and the reference power terminal, and having a drain and a gate connected to the reference power terminal and a source connected to the input signal terminal together with the gate. at least one first NMOS transistor connected in series between the input signal terminal and the ground, and having a drain and a gate connected to the input signal terminal and a source connected to the ground together with the gate; and at least one second NMOS transistor connected in series between the input signal terminal and the reference power terminal, and having a drain and a gate connected to the reference power terminal and a source connected to the input signal terminal together with the gate.
A method of wireless communication by a first wireless device, comprising: determining a numerology configuration to be used for a subframe by determining a first tone spacing in the subframe for a first set of symbols and a second tone spacing in the subframe for a second set of symbols; determine whether to time-division multiplex, TDM, the first set of symbols with the second set of symbols into adjacent locations within the subframe based on the determined numerology configuration of the subframe; and communicating with a second wireless device within the subframe based on the determined numerology configuration and the TDM determination. determining a numerology configuration to be used for a subframe by determining a first tone spacing in the subframe for a first set of symbols and a second tone spacing in the subframe for a second set of symbols; determine whether to time-division multiplex, TDM, the first set of symbols with the second set of symbols into adjacent locations within the subframe based on the determined numerology configuration of the subframe; and communicating with a second wireless device within the subframe based on the determined numerology configuration and the TDM determination.
A device for forming a dimensionally stable, three-dimensional object by consecutive or continuous application and curing of a formable printing material, in particular FFF 3D printer, comprising: - a base body acting as base for the structure of the object, - at least one print head (8, 9) for applying the printing material, - a moving device for changing the relative position of the print head (8, 9) with respect to the base body, and - at least one printing material reservoir for holding the printing material and for supplying the printing material to the print head (8, 9), - wherein said moving device comprises at least one elongated first carrier element extending along an x-axis, - wherein a drive carriage connected or connectable to the print head (8, 9) is linearly guided along the x-axis on the first carrier element and is in particular guided in parallel, - wherein two print heads (8, 9) are provided, characterized - in that the drive carriage has a coupling device, - and in that the drive carriage can be coupled to the print heads (8, 9) and can be released from the print heads (8, 9) via the coupling device, - wherein the drive carriage is selectively coupled to one of the print heads (8, 9), to neither of the print heads (8, 9), or to both print heads (8, 9) via the coupling device. - a base body acting as base for the structure of the object, - at least one print head (8, 9) for applying the printing material, - a moving device for changing the relative position of the print head (8, 9) with respect to the base body, and - at least one printing material reservoir for holding the printing material and for supplying the printing material to the print head (8, 9), - wherein said moving device comprises at least one elongated first carrier element extending along an x-axis, - wherein a drive carriage connected or connectable to the print head (8, 9) is linearly guided along the x-axis on the first carrier element and is in particular guided in parallel, - wherein two print heads (8, 9) are provided, - in that the drive carriage has a coupling device, - and in that the drive carriage can be coupled to the print heads (8, 9) and can be released from the print heads (8, 9) via the coupling device, - wherein the drive carriage is selectively coupled to one of the print heads (8, 9), to neither of the print heads (8, 9), or to both print heads (8, 9) via the coupling device.
A mask, comprising: at least one support base (10, 10a) having a first surface and an opposing second surface, and having at least one opening (12, 12a) formed therein; and at least one positioning layer (20, 20a) only disposed on the first surface of the at least one support base (10, 10a), the at least one positioning layer (20, 20a) having a top surface remote from the first surface of the at least one support base (10, 10a) and a second surface opposite to said first surface, where at least one through opening (22, 22a) corresponding to and communicated to the at least one opening (12, 12a) are formed in the at least one positioning layer (20, 20a); and a width of a cross section of each opening (12, 12a) in the at least one support base (10, 10a) reduces gradually from the second surface of the at least one support base (10 10a) to the first surface, and a width of a cross section of each through openings (22, 22a) in the at least one positioning layer (20, 20a) reduces gradually from the second surface of the at least one positioning layer (20, 20a) to the top surface of the at least one positioning layer (20, 20a). at least one support base (10, 10a) having a first surface and an opposing second surface, and having at least one opening (12, 12a) formed therein; and at least one positioning layer (20, 20a) only disposed on the first surface of the at least one support base (10, 10a), the at least one positioning layer (20, 20a) having a top surface remote from the first surface of the at least one support base (10, 10a) and a second surface opposite to said first surface, where at least one through opening (22, 22a) corresponding to and communicated to the at least one opening (12, 12a) are formed in the at least one positioning layer (20, 20a); and a width of a cross section of each opening (12, 12a) in the at least one support base (10, 10a) reduces gradually from the second surface of the at least one support base (10 10a) to the first surface, and a width of a cross section of each through openings (22, 22a) in the at least one positioning layer (20, 20a) reduces gradually from the second surface of the at least one positioning layer (20, 20a) to the top surface of the at least one positioning layer (20, 20a).
An electron extractor for absorbing contaminants comprising: a body, wherein the body of the electron extractor is formed from one or more non-evaporable getter materials having a porosity at or above a selected porosity level, wherein the one or more non-evaporable getter materials absorb one or more contaminants contained within a region proximate to the body of the electron extractor, wherein the body of the electron extractor is further configured to extract electrons from one or more emitters positioned proximate to the body of the electron extractor, wherein the selected porosity level of the one or more non-evaporable getter materials is between 0.05 and 0.95 of the theoretical density of the electron-optical element; wherein the body comprises an opening; and a beam-defining aperture configured to control angular trajectories of electrons in an electron beam; a converging portion between the opening and the beam-defining aperture; characterized in that the body further comprises a rounded portion between the opening and an outer edge of the electron extractor; an outer sloped surface between the rounded portion and an outer radius of the electron extractor. a body, wherein the body of the electron extractor is formed from one or more non-evaporable getter materials having a porosity at or above a selected porosity level, wherein the one or more non-evaporable getter materials absorb one or more contaminants contained within a region proximate to the body of the electron extractor, wherein the body of the electron extractor is further configured to extract electrons from one or more emitters positioned proximate to the body of the electron extractor, wherein the selected porosity level of the one or more non-evaporable getter materials is between 0.05 and 0.95 of the theoretical density of the electron-optical element; wherein the body comprises an opening; and a beam-defining aperture configured to control angular trajectories of electrons in an electron beam; a converging portion between the opening and the beam-defining aperture; characterized in that the body further comprises a rounded portion between the opening and an outer edge of the electron extractor; an outer sloped surface between the rounded portion and an outer radius of the electron extractor.
A method for a first receiver receiving data from a first transmitter in a first communication link, the first communication link sharing a communication channel with a second communication link between a second transmitter and a second receiver in a wireless network, the first communication link corresponding to a first set of beam directions, the method comprising: - receiving data from the first transmitter in a first active beam direction in the first communication link, in presence of interference from the second communication link; - determining whether a communication quality satisfies a predefined criterion; - selecting a first beam direction from the first set of beam directions in response to determining the communication quality satisfying the predefined criterion; and - in response to the selected first beam direction being other than the first active beam direction, sending a signaling to the second transmitter of the second communication link, wherein the signaling indicates that the second transmitter is not required to suspend transmitting to the second receiver in the second communication link. - receiving data from the first transmitter in a first active beam direction in the first communication link, in presence of interference from the second communication link; - determining whether a communication quality satisfies a predefined criterion; - selecting a first beam direction from the first set of beam directions in response to determining the communication quality satisfying the predefined criterion; and - in response to the selected first beam direction being other than the first active beam direction, sending a signaling to the second transmitter of the second communication link, wherein the signaling indicates that the second transmitter is not required to suspend transmitting to the second receiver in the second communication link.
Clutch transmission, in particular a dual clutch transmission, comprising a hydraulic circuit for actuating and/or cooling the clutch transmission, the hydraulic circuit comprising at least one cooler arranged in a conduit for cooling a hydraulic medium conveyed by at least one pump (7, 9), wherein a bypass is associated with the cooler, the bypass comprising a thermostatic bypass valve and a conduit branching off from the conduit upstream of the cooler and a conduit connected to the conduit downstream of the cooler, wherein the thermostatic bypass valve comprises two ports (233, 235) and has three switching positions, wherein one port is connected to the conduit upstream of the cooler and the other port is connected to the conduit downstream of the cooler, and wherein the bypass valve is configured for movement under a spring force into a first switching position where the bypass is open, for movement from the first switching position against the spring force by a thermal element that expands with increasing temperature into a second switching position where the bypass is closed, and for movement from the second switching position against the spring force due to a differential pressure that exceeds a predetermined threshold into a third switching position where the bypass is open, characterized in that the thermostatic bypass valve is configured as a 2/3-way valve.
Test apparatus comprising at least one difference probe (7, 19) and at least one passage opening for items under test about which the difference probe (7, 19) can be rotated, wherein the difference probe (7, 19) has a first half-probe (8, 20) and a second half-probe (9, 21) and at least one pair of conductor loops comprising a first conductor loop (11, 12, 13) of the first half-probe (8, 20) and a second conductor loop (15, 16, 17) of the second half-probe (9, 21), characterized in that the first conductor loop (11, 12, 13) and the second conductor loop (15, 16, 17) are formed in a mirror-inverted manner to one another and are arranged offset in relation to one another with respect to a mirror-inverted arrangement of the said conductor loops on respective sides of a mirror plane, in which the first conductor loop (11, 12, 13) and the second conductor loop (15, 16, 17) are oriented parallel to the mirror plane, in an offset direction that is likewise parallel to the mirror plane, wherein the first conductor loop (11, 12, 13) and the second conductor loop (15, 16, 17) partially overlap in the normal direction to the mirror plane, and wherein during rotation of the difference probe (7, 19) a centre axis of the passage opening runs substantially parallel to the mirror plane or within the mirror plane.
Method for assigning control commands in a vehicle, wherein the method has the following steps: reading in occupant eyeline information via an interface to an occupant detection device of the vehicle, wherein the occupant eyeline information represents an eyeline of an occupant of the vehicle to a device of the vehicle that is to be controlled; and selectively assigning a control command from a first control device of the vehicle and/or a control command from a second control device of the vehicle to the device by using the occupant eyeline information, in order to control the device either using the first control device or using the second control device. reading in occupant eyeline information via an interface to an occupant detection device of the vehicle, wherein the occupant eyeline information represents an eyeline of an occupant of the vehicle to a device of the vehicle that is to be controlled; and selectively assigning a control command from a first control device of the vehicle and/or a control command from a second control device of the vehicle to the device by using the occupant eyeline information, in order to control the device either using the first control device or using the second control device.
A liquid blow-molding apparatus provided with: a blow molding die in which is disposed a closed-bottom cylindrical preform, a support block disposed above the blow molding die and having a feed path formed in its interior, a blow nozzle that is provided at a lower end of the support block continuously with the feed path and that engages with a mouth (PFb) of a preform disposed in the blow molding die, and a pressurized liquid feed unit connected to the feed path, pressurized liquid being fed from the pressurized liquid feed unit through the blow nozzle into the interior of the preform to liquid blow-mold the preform into a shape conforming to a cavity of the blow molding die; the apparatus being characterized in that: the feed path has a shape comprising: - a flow path body having a vertically extending inner diameter that is constant or decreases toward the blow nozzle, - a first port, and - a second port connected to the flow path body; - a valve mechanism for opening and closing an open-and-closable flow path connecting the flow path body and the blow nozzle is provided in the open-and-closable flow path; and wherein the apparatus is adapted such that a liquid can circulate between the feed path and the pressurized liquid feed unit when the valve mechanism is in a closed state, and the apparatus is adapted such that a pressurized liquid can be fed from the feed path through the blow nozzle into the interior of the preform when the valve mechanism is in an open state, characterized in that the apparatus further comprises a dome chamber that is formed in a domed shape and is continuous with an upper end of the flow path body, the first port having the same upper end as the dome chamber and extending horizontally from the dome chamber. the feed path has a shape comprising: - a flow path body having a vertically extending inner diameter that is constant or decreases toward the blow nozzle, - a first port, and - a second port connected to the flow path body; - a valve mechanism for opening and closing an open-and-closable flow path connecting the flow path body and the blow nozzle is provided in the open-and-closable flow path; and - a flow path body having a vertically extending inner diameter that is constant or decreases toward the blow nozzle, - a first port, and - a second port connected to the flow path body; - a valve mechanism for opening and closing an open-and-closable flow path connecting the flow path body and the blow nozzle is provided in the open-and-closable flow path; and wherein the apparatus is adapted such that a liquid can circulate between the feed path and the pressurized liquid feed unit when the valve mechanism is in a closed state, and the apparatus is adapted such that a pressurized liquid can be fed from the feed path through the blow nozzle into the interior of the preform when the valve mechanism is in an open state,
A 4.3/10 coaxial connector, blocking similar interface connectors such as the Mini-DIN connector, comprising: an inner contact defining a longitudinal axis; an outer connector body; a cylindrical outer contact with a plurality of spring fingers positioned radially inwardly of the outer connector body; and a barrier plug retained proximate a distal end of the spring fingers that creates a stop face adjacent an inner diameter of the spring fingers in order to contact an outer conductor of an improperly mating Mini-DIN connector, wherein the spring fingers and the outer connector body are suitable for contacting the outer body of a properly mating connector. an inner contact defining a longitudinal axis; an outer connector body; a cylindrical outer contact with a plurality of spring fingers positioned radially inwardly of the outer connector body; and a barrier plug retained proximate a distal end of the spring fingers that creates a stop face adjacent an inner diameter of the spring fingers in order to contact an outer conductor of an improperly mating Mini-DIN connector, wherein the spring fingers and the outer connector body are suitable for contacting the outer body of a properly mating connector.
A timing system comprising: timing circuitry comprising: an arming queue; a clock work queue; and a clock completion queue; wherein at least the clock work queue is to provide timing information, and the arming queue is to arm the clock work queue, wherein the clock work queue is for synchronizing a sending time of packets pointed to by entries in a send queue to hold entries pointing to packets to be transmitted, via interaction with the clock completion queue. timing circuitry comprising: an arming queue; a clock work queue; and a clock completion queue; an arming queue; a clock work queue; and a clock completion queue; wherein at least the clock work queue is to provide timing information, and the arming queue is to arm the clock work queue, wherein the clock work queue is for synchronizing a sending time of packets pointed to by entries in a send queue to hold entries pointing to packets to be transmitted, via interaction with the clock completion queue.
A method for use in a network element comprising: providing to a user equipment, UE, (170, 270, 370) in a telecommunication cell, an indication of a type of connectivity selected for the UE (170, 270, 370) for a PDP context or a PDN connection in a telecommunication cell; wherein the indication of the type of connectivity selected for the UE (170, 270, 370) indicates one of: local internet protocol access, LIPA, connectivity, selected internet protocol traffic offload, SIPTO, connectivity or remote connectivity; wherein providing the indication of a type of connectivity selected for the UE occurs in a non-access stratum, NAS, functional layer; wherein providing the indication of a type of connectivity selected for the UE comprises providing a message to the UE, which is at least one of an ACTIVATE DEFAULT EPS BEARER CONTEXT REQUEST message or an ACTIVATE PDP CONTEXT ACCEPT message, comprising the indication of the type of connectivity selected for the UE; and wherein providing the indication of a type of connectivity selected for the UE occurs during one of: when requesting by the UE an additional packet data protocol, PDP, context; or when requesting by the UE a packet data network, PDN, connection; wherein providing an indication of a type of connectivity selected for the UE is performed in response to receiving a request for a type of connectivity from the UE. providing to a user equipment, UE, (170, 270, 370) in a telecommunication cell, an indication of a type of connectivity selected for the UE (170, 270, 370) for a PDP context or a PDN connection in a telecommunication cell; wherein the indication of the type of connectivity selected for the UE (170, 270, 370) indicates one of: local internet protocol access, LIPA, connectivity, selected internet protocol traffic offload, SIPTO, connectivity or remote connectivity; wherein providing the indication of a type of connectivity selected for the UE occurs in a non-access stratum, NAS, functional layer; wherein providing the indication of a type of connectivity selected for the UE comprises providing a message to the UE, which is at least one of an ACTIVATE DEFAULT EPS BEARER CONTEXT REQUEST message or an ACTIVATE PDP CONTEXT ACCEPT message, comprising the indication of the type of connectivity selected for the UE; and wherein providing the indication of a type of connectivity selected for the UE occurs during one of: when requesting by the UE an additional packet data protocol, PDP, context; or when requesting by the UE a packet data network, PDN, connection; wherein providing an indication of a type of connectivity selected for the UE is performed in response to receiving a request for a type of connectivity from the UE.