mhurhangee/ep-ind-claims huggingface dataset:
A method (700; 800) of selecting, by a user equipment, a beam for wireless communication in an active coordination set comprising a plurality of base stations, the method comprising the user equipment: receiving (702; 802) candidate beams of an active-coordination-set beam-sweep transmitted by the base stations in the active coordination set, the active-coordination-set beam-sweep comprising multiple time slots, each of the multiple time slots comprising one or more candidate beams; determining (704; 804) a respective link-quality metric for each of the received one or more candidate beams in each of the time slots; based on the determined link-quality metrics, selecting (706; 806) the one or more candidate beams in a time slot to use for the wireless communication; and transmitting (708; 808) a beam-acquired indication at a first predetermined time offset after the time slot in which the selected one or more candidate beams are received, the transmitting being effective to direct the base stations to use the selected one or more candidate beams for the wireless communication, wherein the beam-acquired indication is effective to allow the base stations to determine which of the one or more candidate beams are selected based on the first predetermined time offset and a time at which the base stations receive the beam-acquired indication. receiving (702; 802) candidate beams of an active-coordination-set beam-sweep transmitted by the base stations in the active coordination set, the active-coordination-set beam-sweep comprising multiple time slots, each of the multiple time slots comprising one or more candidate beams; determining (704; 804) a respective link-quality metric for each of the received one or more candidate beams in each of the time slots; based on the determined link-quality metrics, selecting (706; 806) the one or more candidate beams in a time slot to use for the wireless communication; and transmitting (708; 808) a beam-acquired indication at a first predetermined time offset after the time slot in which the selected one or more candidate beams are received, the transmitting being effective to direct the base stations to use the selected one or more candidate beams for the wireless communication, wherein the beam-acquired indication is effective to allow the base stations to determine which of the one or more candidate beams are selected based on the first predetermined time offset and a time at which the base stations receive the beam-acquired indication.
Machine tool, in particular hand-held machine tool, with a torque-limiting unit which is located in the drive of the tool spindle of said machine tool, is accommodated in a housing part and the triggering moment of which can be set via an axial latching support assembly, which has at least one spring support assembly (13, 14) acting upon latching bodies and having at least one spring element (16, 17), and is supported on the housing side via a support member which is adjustable in the axial direction of the tool spindle, wherein the latching bodies and the at least one spring element (16, 17) of the spring support assembly (13, 14) lie radially offset with respect to each other, wherein the at least one spring element (16, 17) of the spring support assembly (13, 14) is supported on the latching bodies, which lie radially offset, via a bridging member (31, 33), characterized in that the spring support assembly is arranged offset radially inwards with respect to the latching bodies which lie in particular on a circular ring which is coaxial with the spring support assembly, and in that the bridging member has an annular spring carrier with supporting legs which protrude radially inwards and on which the at least one spring element which is supported against the latching bodies sits.
A method of wirelessly controlling a network interface card NIC (108 A-N) using a wireless network, the NIC (108 A-N) providing a communication interface between a host (104 A-N) and the wireless network, the method comprising: configuring the NIC (108 A-N) to transmit a series of signals to an access point of the wireless network during a host sleep mode in which the NIC uses auxiliary power of the host, the series of signals indicating that the NIC (108 A-N) is wirelessly coupled to the access point; configuring the NIC (108 A-N) to issue a wake up command to the host (104 A-N) after the NIC (108 A-N) receives a network command signal from the wireless network; receiving a wireless network signal; determining whether the wireless network signal comprises the network command signal, wherein if not, then returning to receiving, and wherein if so, then issuing the wake up command to the host to enable a main power supply for the host (104 A-N) and the NIC (108 A-N); and receiving and processing, by the host, network commands after the main power supply has been enabled. configuring the NIC (108 A-N) to transmit a series of signals to an access point of the wireless network during a host sleep mode in which the NIC uses auxiliary power of the host, the series of signals indicating that the NIC (108 A-N) is wirelessly coupled to the access point; configuring the NIC (108 A-N) to issue a wake up command to the host (104 A-N) after the NIC (108 A-N) receives a network command signal from the wireless network; receiving a wireless network signal; determining whether the wireless network signal comprises the network command signal, wherein if not, then returning to receiving, and wherein if so, then issuing the wake up command to the host to enable a main power supply for the host (104 A-N) and the NIC (108 A-N); and wherein if not, then returning to receiving, and wherein if so, then issuing the wake up command to the host to enable a main power supply for the host (104 A-N) and the NIC (108 A-N); and receiving and processing, by the host, network commands after the main power supply has been enabled.
A method for identifying one or more spectral features in a spectrum (4, 5) of a sample for a constituent analysis of the sample, comprising the method steps: a) providing the spectrum (4, 5); b) specifying an approximation function, which is a continuously differentiable mathematical function and approximates an emission behavior of the sample as a function of the wavelength L with an uncertainty S; characterized by c) respectively forming a derivative of (n-1)-th degree (7, 8, 9) of the spectrum (4, 5) and the approximation function, with the number n> 1; d) generating a correlation matrix from the two derivatives of (n-1)-th degree (7, 8, 9) for predetermined wavelengths L and predetermined uncertainties S, wherein the correlation matrix describes a correlation between the derivative of the approximation function and the derivative of the spectrum as a function of wavelength L and uncertainty S; e) respectively identifying the spectral feature or one of the spectral features in dependence upoon in each case one local extremum (i) of the correlation matrix for at least one extremum (i) of the correlation matrix, the respective feature being identified by coordinates of the extremum (i) in a wavelength-uncertainty space determined by the correlation matrix. a) providing the spectrum (4, 5); b) specifying an approximation function, which is a continuously differentiable mathematical function and approximates an emission behavior of the sample as a function of the wavelength L with an uncertainty S; characterized by c) respectively forming a derivative of (n-1)-th degree (7, 8, 9) of the spectrum (4, 5) and the approximation function, with the number n> 1; d) generating a correlation matrix from the two derivatives of (n-1)-th degree (7, 8, 9) for predetermined wavelengths L and predetermined uncertainties S, wherein the correlation matrix describes a correlation between the derivative of the approximation function and the derivative of the spectrum as a function of wavelength L and uncertainty S; e) respectively identifying the spectral feature or one of the spectral features in dependence upoon in each case one local extremum (i) of the correlation matrix for at least one extremum (i) of the correlation matrix, the respective feature being identified by coordinates of the extremum (i) in a wavelength-uncertainty space determined by the correlation matrix.
A light-emitting device comprising: a light-emitting structure comprising a first conductivity type semiconductor layer, an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a first electrode arranged under the light-emitting structure and electrically connected to the second conductivity type semiconductor layer; a reflective layer arranged inside the second conductivity type semiconductor layer and spaced apart from the first electrode and the active layer; and a second electrode electrically connected to the first conductivity type semiconductor layer, wherein the first electrode has a first region making contact with a bottom surface of the second conductivity type semiconductor layer and a second region extending outward from the first region, wherein the second conductivity type semiconductor layer comprises a second conductivity type first semiconductor layer on the reflective layer and a second conductivity type second semiconductor layer under the reflective layer, wherein the reflective layer is disposed between the second conductivity type first semiconductor layer and the second conductivity type second semiconductor layer, characterized in that the reflective layer comprises a conductive ion implantation layer, and wherein the second conductivity type first semiconductor layer has a thickness thinner than a thickness of the second conductivity type second semiconductor layer. a light-emitting structure comprising a first conductivity type semiconductor layer, an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a first electrode arranged under the light-emitting structure and electrically connected to the second conductivity type semiconductor layer; a reflective layer arranged inside the second conductivity type semiconductor layer and spaced apart from the first electrode and the active layer; and a second electrode electrically connected to the first conductivity type semiconductor layer, wherein the first electrode has a first region making contact with a bottom surface of the second conductivity type semiconductor layer and a second region extending outward from the first region, wherein the second conductivity type semiconductor layer comprises a second conductivity type first semiconductor layer on the reflective layer and a second conductivity type second semiconductor layer under the reflective layer, wherein the reflective layer is disposed between the second conductivity type first semiconductor layer and the second conductivity type second semiconductor layer, characterized in that the reflective layer comprises a conductive ion implantation layer, and wherein the second conductivity type first semiconductor layer has a thickness thinner than a thickness of the second conductivity type second semiconductor layer.
Method for forming packages of individual printed products (6; HP, IS), in which the printed products (6; HP, IS) are delivered continuously via at least one feeder (4, 5) to a conveyor means and are then transported to cross stackers (8a, 8b, 8c) in which the individual packages (9a, 9b, 9c) are formed from a number of printed products, characterised in that, in order to form a package with an even number of printed products, pockets of the conveyor means operatively connected to the at least one feeder (4, 5) are continuously loaded with two printed products (6a, 6b) at a time until the package or packages are formed numerically, and in that, in order to form a preceding or following or subsequent package with an odd number of printed products, a pocket, in combination with the doubly occupied pockets predetermined for the formation of the package, is loaded with a single printed product, and in that in the event of package-related error corrections, the production flow over the conveyor means is not restricted.
A communication device for communicating with a plurality of terminals, the communication device being configured to: determine, in dependence on information received from one or more of the terminals, that an alert has occurred; the communication device being characterized in that it is configured to: anticipate that the plurality of terminals may attempt to transmit messages informing it of the alert; identify other terminals that are likely to be affected by the alert; and select only a subset of those other terminals to attempt to transmit in response to the alert. determine, in dependence on information received from one or more of the terminals, that an alert has occurred; the communication device being characterized in that it is configured to: anticipate that the plurality of terminals may attempt to transmit messages informing it of the alert; identify other terminals that are likely to be affected by the alert; and select only a subset of those other terminals to attempt to transmit in response to the alert. anticipate that the plurality of terminals may attempt to transmit messages informing it of the alert; identify other terminals that are likely to be affected by the alert; and select only a subset of those other terminals to attempt to transmit in response to the alert.
An apparatus for machining flat workpieces, comprising a machine frame including a workpiece support and at least one carrier unit positionable relative to the workpiece support, a first and at least a second machining head (22 to 30), each machining head (22 to 30) being connected to the carrier unit and each machining head (22 to 30) comprising a tool carrier (320, 322) that is mounted on the carrier unit rotatably about a first axis (62 to 70) perpendicular to the workpiece support and that carries at least one tool (32 to 50) that is mounted on the tool carrier (320, 322) eccentrically to the first axis (62 to 70) rotatably about a second axis perpendicular to the workpiece support and is connected to a planet wheel (122 to 140) that is gear-engaged with a sun wheel (102 to 110) that is coaxial to the first axis (62 to 70), the tool carrier (320, 322) of the machining heads (22 to 30) being drivable by at least a first drive unit, characterized in that the tool carrier of the first machining head is arranged such that it is movable in a shifting range along the first axis relative to the carrier unit, and that the tool carrier of the second machining head is arranged such that it is movable in a shifting area along the first axis relative to the carrier unit. a machine frame including a workpiece support and at least one carrier unit positionable relative to the workpiece support, a first and at least a second machining head (22 to 30), each machining head (22 to 30) being connected to the carrier unit and each machining head (22 to 30) comprising a tool carrier (320, 322) that is mounted on the carrier unit rotatably about a first axis (62 to 70) perpendicular to the workpiece support and that carries at least one tool (32 to 50) that is mounted on the tool carrier (320, 322) eccentrically to the first axis (62 to 70) rotatably about a second axis perpendicular to the workpiece support and is connected to a planet wheel (122 to 140) that is gear-engaged with a sun wheel (102 to 110) that is coaxial to the first axis (62 to 70), the tool carrier (320, 322) of the machining heads (22 to 30) being drivable by at least a first drive unit, characterized in that the tool carrier of the first machining head is arranged such that it is movable in a shifting range along the first axis relative to the carrier unit, and that the tool carrier of the second machining head is arranged such that it is movable in a shifting area along the first axis relative to the carrier unit.
A gas turbine adapted to obtain rotational power by supplying fuel to compressed air compressed by a compressor, burning the fuel in a combustor, and supplying produced combustion gas to a turbine, the gas turbine comprising: a turbine main body formed in a cylindrical shape, constituting an exhaust system, and including an exhaust chamber (14;101) and an exhaust duct (31;104), wherein the exhaust chamber (14;101) is disposed upstream of the exhaust duct (31;104) in the flowing direction of the exhaust gas; an outer shell member (71;102) formed in a ring shape disposed at an outer peripheral side of the exhaust chamber (14;101); and an exhaust chamber leg for mounting the turbine main body, wherein the outer shell member (71;102) is mounted on the floor by the exhaust chamber leg, wherein the exhaust chamber (14;101) and the the outer shell member (71;102) are connected by a support member (33;103) that is capable of absorbing thermal expansion, and the exhaust duct (31;104) and the outer shell member (71;102) are connected by a high-temperature expansion joint (34;105) that is capable of absorbing thermal expansion. a turbine main body formed in a cylindrical shape, constituting an exhaust system, and including an exhaust chamber (14;101) and an exhaust duct (31;104), wherein the exhaust chamber (14;101) is disposed upstream of the exhaust duct (31;104) in the flowing direction of the exhaust gas; an outer shell member (71;102) formed in a ring shape disposed at an outer peripheral side of the exhaust chamber (14;101); and an exhaust chamber leg for mounting the turbine main body, wherein the outer shell member (71;102) is mounted on the floor by the exhaust chamber leg, wherein the exhaust chamber (14;101) and the the outer shell member (71;102) are connected by a support member (33;103) that is capable of absorbing thermal expansion, and the exhaust duct (31;104) and the outer shell member (71;102) are connected by a high-temperature expansion joint (34;105) that is capable of absorbing thermal expansion.
A filter apparatus for filtering a stream of gas, the apparatus comprising:- a head having an inlet and an outlet, the head including a first flow conduit connected to one of said inlet and said outlet and a second flow conduit connected to the other of said inlet and said outlet; a filter for filtering the gas flowing though the filter apparatus; a bowl connected to and sealed relative to said head for containing said filter, said bowl having at least one internal surface having at least one recess therein; a connector for connecting said filter to said head and said bowl, the connector including:- a head engaging portion for engaging and sealing around said second flow conduit; a filter engaging portion for retaining said filter, said connector thereby directing the flow of the gas between said filter and said second flow conduit; and a bowl engaging portion having at least one protrusion for insertion into said recess, and characterized in that said bowl engaging portion comprises at least one flexible member with said protrusion located thereon. a head having an inlet and an outlet, the head including a first flow conduit connected to one of said inlet and said outlet and a second flow conduit connected to the other of said inlet and said outlet; a filter for filtering the gas flowing though the filter apparatus; a bowl connected to and sealed relative to said head for containing said filter, said bowl having at least one internal surface having at least one recess therein; a connector for connecting said filter to said head and said bowl, the connector including:- a head engaging portion for engaging and sealing around said second flow conduit; a filter engaging portion for retaining said filter, said connector thereby directing the flow of the gas between said filter and said second flow conduit; and a bowl engaging portion having at least one protrusion for insertion into said recess, and characterized in that said bowl engaging portion comprises at least one flexible member with said protrusion located thereon. a head engaging portion for engaging and sealing around said second flow conduit; a filter engaging portion for retaining said filter, said connector thereby directing the flow of the gas between said filter and said second flow conduit; and a bowl engaging portion having at least one protrusion for insertion into said recess, and characterized in that said bowl engaging portion comprises at least one flexible member with said protrusion located thereon.
Method, for use in an Internet Protocol Multimedia Subsystem, IMS, network, of selecting from a plurality of composite IMS services a composite IMS service to be executed in response to a network event, the composite service being a combination of mutually different services, each composite IMS service having associated therewith criteria determining whether or not the composite IMS service may be executed in reaction to the network event, for each composite IMS service said criteria associated therewith including a Boolean expression indicating the applicability of said composite IMS service for said network event, the Boolean expression including one or more conditions and one or more Boolean operators, the method comprising: - composing, for the network event, for each composite IMS service an indicator indicating - whether or not the Boolean expression for that composite IMS service is met by the network event, and - a measure of conformity of the network event with said Boolean expression; - selecting the composite IMS service having associated therewith the indicator indicating that the Boolean expression is met, and indicating closest conformity, and - executing the selected composite IMS service in response to the network event. - composing, for the network event, for each composite IMS service an indicator indicating - whether or not the Boolean expression for that composite IMS service is met by the network event, and - a measure of conformity of the network event with said Boolean expression; - whether or not the Boolean expression for that composite IMS service is met by the network event, and - a measure of conformity of the network event with said Boolean expression; - selecting the composite IMS service having associated therewith the indicator indicating that the Boolean expression is met, and indicating closest conformity, and - executing the selected composite IMS service in response to the network event.
A combination of a test leak device configured for calibrating or testing leak detection apparatuses and a receiver spaced apart from the test leak device, wherein the test leak device comprises a compressed gas container with an inlet for filling with a test gas and with a leak having a predefined leakage rate, characterized in that the test leak device comprises an integrated pressure sensor arranged at the inlet and monitoring the pressure in the compressed gas container and being configured for wireless transmission of the measured pressure values to the receiver, wherein the receiver is configured for wireless reception of the pressure sensor values, and that the test leak device comprises a memory adapted to be read wirelessly, in which memory the leakage rate of the leak is stored, and is configured for wireless transmission of the stored data to the receiver. characterized in that the test leak device comprises an integrated pressure sensor arranged at the inlet and monitoring the pressure in the compressed gas container and being configured for wireless transmission of the measured pressure values to the receiver, wherein the receiver is configured for wireless reception of the pressure sensor values, and that the test leak device comprises a memory adapted to be read wirelessly, in which memory the leakage rate of the leak is stored, and is configured for wireless transmission of the stored data to the receiver.