mhurhangee/ep-ind-claims huggingface dataset:
A driver for driving a lamp comprising one or more light emitting diodes, the driver comprising: - an arrangement for, in response to detections of instantaneous values of an input voltage signal of the driver and in response to a detection of an average value of the input voltage signal, providing an output current to the lamp, each detected instantaneous value divided by the detected average value forming a ratio, and - an adaptation circuit between the input voltage and the arrangement to adapt the detected instantaneous and average values of the input voltage signal for adapting at least some of the ratios to allow the input voltage signal to be provided via a dimmer for dimming the lamp. - an arrangement for, in response to detections of instantaneous values of an input voltage signal of the driver and in response to a detection of an average value of the input voltage signal, providing an output current to the lamp, each detected instantaneous value divided by the detected average value forming a ratio, and - an adaptation circuit between the input voltage and the arrangement to adapt the detected instantaneous and average values of the input voltage signal for adapting at least some of the ratios to allow the input voltage signal to be provided via a dimmer for dimming the lamp.
Fitting, in particular for a shower partition, having two fitting halves (11, 12) which are connected or can be connected in an articulated manner for the pivotable, swinging mounting of a partition or door on a component, such as a pane, the fitting having a coupling part for the articulated coupling of the fitting halves (11, 12), forming two joints with parallel pivot axes (14, 15), wherein the fitting has an adjustable stop acting between one of the fitting halves (11, 12) and the coupling part, characterized in that the fitting has a lifting device for superimposing an axial lifting movement when the partition and/or door is pivoted about one of the two pivot axes, the lifting device having a lifting element which is inserted or can be inserted into the coupling part and can be adjusted along the one of the two pivot axes. wherein the fitting has an adjustable stop acting between one of the fitting halves (11, 12) and the coupling part, characterized in that the fitting has a lifting device for superimposing an axial lifting movement when the partition and/or door is pivoted about one of the two pivot axes, the lifting device having a lifting element which is inserted or can be inserted into the coupling part and can be adjusted along the one of the two pivot axes.
A method for event monitoring for a wind turbine, comprising: measuring a first signal pattern (302 n) representing a characteristic selected from a characteristic group, the characteristic group consisting of: a mechanical characteristic of a wind turbine, emitted noise of a wind turbine, emitted noise of a part of a wind turbine; power output of a wind turbine, surface conductivity of parts of a wind turbine, operational data of a wind turbine, temperature of parts of a wind turbine, outside temperature, wind velocity, wind direction, and outside air humidity or other weather conditions; measuring at least a second signal pattern (302 n) representing a different characteristic selected from the characteristic group; analyzing the first and the second signal pattern or a combination of the first and the second analyzed signal pattern with an analyzing method, wherein analyzed data is generated; evaluating the analyzed data with regard to an analyzed data of a time period for which an event (312, 322, 323) was not present, wherein the evaluation provides a result indicative for the event (312, 322, 323). measuring a first signal pattern (302 n) representing a characteristic selected from a characteristic group, the characteristic group consisting of: a mechanical characteristic of a wind turbine, emitted noise of a wind turbine, emitted noise of a part of a wind turbine; power output of a wind turbine, surface conductivity of parts of a wind turbine, operational data of a wind turbine, temperature of parts of a wind turbine, outside temperature, wind velocity, wind direction, and outside air humidity or other weather conditions; measuring at least a second signal pattern (302 n) representing a different characteristic selected from the characteristic group; analyzing the first and the second signal pattern or a combination of the first and the second analyzed signal pattern with an analyzing method, wherein analyzed data is generated; evaluating the analyzed data with regard to an analyzed data of a time period for which an event (312, 322, 323) was not present, wherein the evaluation provides a result indicative for the event (312, 322, 323).
A wellhead assembly with an axis, comprising: an outer wellhead member, the outer wellhead member having a locking profile on an inner surface; an inner tubular wellhead member, the inner tubular wellhead member being operable to land within the outer wellhead member, defining a seal pocket between the inner tubular wellhead member and the outer wellhead member; a seal ring located in the seal pocket; a seal energizing ring selectively urging the seal ring into sealing engagement with the outer wellhead member and the inner tubular wellhead member, an annular lock ring carried with the seal energizing ring, the annular lock ring selectively engaging the locking profile; and a lock energizing ring selectively retaining the annular lock ring in engagement with the locking profile; characterized in that an upper end of the inner tubular wellhead member selectively engages a downward facing shoulder of the seal energizing ring, an annular gland is secured to the seal ring; and the annular gland is threaded to the lock energizing ring, the annular lock ring being carried axially between an upper end surface of annular gland and sloped outer surface of lock energizing ring, sloped outer surface being a generally downward facing annular shoulder. an outer wellhead member, the outer wellhead member having a locking profile on an inner surface; an inner tubular wellhead member, the inner tubular wellhead member being operable to land within the outer wellhead member, defining a seal pocket between the inner tubular wellhead member and the outer wellhead member; a seal ring located in the seal pocket; a seal energizing ring selectively urging the seal ring into sealing engagement with the outer wellhead member and the inner tubular wellhead member, an annular lock ring carried with the seal energizing ring, the annular lock ring selectively engaging the locking profile; and a lock energizing ring selectively retaining the annular lock ring in engagement with the locking profile; characterized in that an upper end of the inner tubular wellhead member selectively engages a downward facing shoulder of the seal energizing ring, an annular gland is secured to the seal ring; and the annular gland is threaded to the lock energizing ring, the annular lock ring being carried axially between an upper end surface of annular gland and sloped outer surface of lock energizing ring, sloped outer surface being a generally downward facing annular shoulder.
Method for determining the location of a mobile device within a building, wherein a respective mobile device is moved by the user within the room, - wherein a motion sensor of the respective mobile device identifies a movement by the device and a motion detector of a respective room device installed in at least one room of a building identifies characterized a movement in the at least one room, - in that the respective room device sends a radio message containing its own position, - in that the respective mobile device receives the radio message and in so doing measures the signal strength thereof, - in that the respective mobile device uses a statistical method to identify firstly when the signal strength of the radio message just received is high and secondly when the movement established by the motion detector of the respective room device and the movement established by the motion sensor of the respective mobile device have a temporal correlation, and concludes therefrom that the movement just reported in the at least one room is probably its own and that the respective mobile device is situated in the at least one room and in proximity to the respective room device or the position thereof. - wherein a motion sensor of the respective mobile device identifies a movement by the device and a motion detector of a respective room device installed in at least one room of a building identifies characterized a movement in the at least one room, - in that the respective room device sends a radio message containing its own position, - in that the respective mobile device receives the radio message and in so doing measures the signal strength thereof, - in that the respective mobile device uses a statistical method to identify firstly when the signal strength of the radio message just received is high and secondly when the movement established by the motion detector of the respective room device and the movement established by the motion sensor of the respective mobile device have a temporal correlation, and concludes therefrom that the movement just reported in the at least one room is probably its own and that the respective mobile device is situated in the at least one room and in proximity to the respective room device or the position thereof.
A spring probe connector (100, 200, 601) configured to connect to a backplane and a printed circuit board (405, 505, 605, 705) of a modular connector assembly (500, 600, 700, 800), the spring probe connector comprising: a hollow barrel (104, 204) defining a first opening and a second opening; a plunger (102, 202) configured to be received by the first opening, the plunger having a contact tip (106, 206) that protrudes from the first opening and is configured to make electrical contact with the backplane; one or more springs (114, 214) positioned within the hollow barrel and configured to apply a load onto the plunger; and a contact end (108, 208, 608) that protrudes from the second opening and is configured to engage an edge of the printed circuit board of the modular connector assembly, wherein the contact end (108, 208, 608) comprises two posterior engagement arms (208a, 208b) and one anterior engagement arm, the two posterior engagement arms being configured to engage with a posterior edge of the printed circuit board and the anterior engagement arm being configured to engage with an anterior edge of the printed circuit board, and wherein the two posterior engagement arms (208a, 208b) and the anterior engagement arm include inwardly facing curved portions configured to contact the edge of the printed circuit board. a hollow barrel (104, 204) defining a first opening and a second opening; a plunger (102, 202) configured to be received by the first opening, the plunger having a contact tip (106, 206) that protrudes from the first opening and is configured to make electrical contact with the backplane; one or more springs (114, 214) positioned within the hollow barrel and configured to apply a load onto the plunger; and a contact end (108, 208, 608) that protrudes from the second opening and is configured to engage an edge of the printed circuit board of the modular connector assembly, wherein the contact end (108, 208, 608) comprises two posterior engagement arms (208a, 208b) and one anterior engagement arm, the two posterior engagement arms being configured to engage with a posterior edge of the printed circuit board and the anterior engagement arm being configured to engage with an anterior edge of the printed circuit board, and wherein the two posterior engagement arms (208a, 208b) and the anterior engagement arm include inwardly facing curved portions configured to contact the edge of the printed circuit board.
A cooling device comprising a cabinet wherein items to be cooled are stored and a door that closes this cabinet, the cooling device further comprising a stepped shelf having two support surfaces (5, 105) that are disposed at different heights such that a certain distance is left therebetween and one partially extending over the other, a joining wall extending between the two support surfaces (5, 105) and joining these surfaces to each other, a storage partition that is bound by the portions of the two support surfaces (5, 105) that are one above the other and by the joining wall, and an orifice (7 or 70) that remains between the two support surfaces (5, 105) for loading items to be stored in the storage partition and/or for removing therefrom, wherein the stepped shelf is produced of plastic as a single piece, and wherein each of the two support surfaces (5, 105) forms a flat surface.
A method comprising: a) providing a semiconductor wafer comprising a front side comprising an oxidized emitter layer, a back side and a PN junction; b) contacting the semiconductor wafer with a composition consisting of one or more alkali metal bifluorides, sulfamic acid, water, one or more sources of metal ions and, optionally one or more surfactants and/or one or more buffering agents; c) generating an electrical current in the composition; d) applying anodic current for a predetermined period of time, followed by turning the anodic current off for a predetermined period of time and repeating the cycle to form a nanoporous layer on the oxidized emitter layer of the semiconductor wafer, wherein a sheet resistivity of the emitter layer is increased by 5% to 40% of the sheet resistivity of the emitter layer prior to application of the anodic current; and e) applying cathodic current and light to deposit a metal on the nanoporous layer. a) providing a semiconductor wafer comprising a front side comprising an oxidized emitter layer, a back side and a PN junction; b) contacting the semiconductor wafer with a composition consisting of one or more alkali metal bifluorides, sulfamic acid, water, one or more sources of metal ions and, optionally one or more surfactants and/or one or more buffering agents; c) generating an electrical current in the composition; d) applying anodic current for a predetermined period of time, followed by turning the anodic current off for a predetermined period of time and repeating the cycle to form a nanoporous layer on the oxidized emitter layer of the semiconductor wafer, wherein a sheet resistivity of the emitter layer is increased by 5% to 40% of the sheet resistivity of the emitter layer prior to application of the anodic current; and e) applying cathodic current and light to deposit a metal on the nanoporous layer.
A system for motoring a gas turbine engine of an aircraft, the system comprising: an air turbine starter operable to drive rotation of a starting spool of a gas turbine engine of the aircraft in response to compressed air; a starter air valve operable to control delivery of the compressed air to the air turbine starter; and a controller operable to control motoring of the starting spool of the gas turbine engine by controlling a state of the starter air valve, detect a fault condition that prevents the controller from maintaining a motoring speed below a threshold level, and command a mitigation action that reduces delivery of the compressed air to the air turbine starter based on detection of the fault condition, wherein the fault condition comprises a stuck open position of the starter air valve or a pressure surge of the compressed air. an air turbine starter operable to drive rotation of a starting spool of a gas turbine engine of the aircraft in response to compressed air; a starter air valve operable to control delivery of the compressed air to the air turbine starter; and a controller operable to control motoring of the starting spool of the gas turbine engine by controlling a state of the starter air valve, detect a fault condition that prevents the controller from maintaining a motoring speed below a threshold level, and command a mitigation action that reduces delivery of the compressed air to the air turbine starter based on detection of the fault condition, wherein the fault condition comprises a stuck open position of the starter air valve or a pressure surge of the compressed air.
A terminal device, comprising: a transceiver unit, configured to receive an update message, wherein the update message is used to instruct the terminal device to update a non-access stratum, NAS, type and/or update a key of the terminal device; and a processing unit, configured to update the NAS type and/or update the key of the terminal device, wherein the updating a NAS type comprises: updating a NAS type used for communication with a second core network device to a NAS type used for communication with a first core network device; and the updating a key of the terminal device comprises: updating a first key used for communication with the second core network device to a second key used for communication with the first core network device; and the first core network device and the second core network device communicate with the terminal device by using a same access network device. a transceiver unit, configured to receive an update message, wherein the update message is used to instruct the terminal device to update a non-access stratum, NAS, type and/or update a key of the terminal device; and a processing unit, configured to update the NAS type and/or update the key of the terminal device, wherein the updating a NAS type comprises: updating a NAS type used for communication with a second core network device to a NAS type used for communication with a first core network device; and the updating a key of the terminal device comprises: updating a first key used for communication with the second core network device to a second key used for communication with the first core network device; and the first core network device and the second core network device communicate with the terminal device by using a same access network device.
A signal scrambling method, comprising: scrambling, by a communications apparatus, a signal by using a scrambling sequence, wherein the method is characterized in that an initial value used for generating the scrambling sequence is determined based on a first terminal identity and a time unit number corresponding to a frame structure parameter used for transmitting the signal, wherein the first terminal identity is one terminal identity, that is indicated by a network device, of at least two terminal identities configured by the network device for a terminal device, and wherein the frame structure parameter comprises a subcarrier spacing configuration parameter, different values of the subcarrier spacing configuration parameter correspond to different subcarrier spacings, the time unit number comprises a slot number in a radio frame, a quantity of slots in a radio frame is determined based on the subcarrier spacing configuration parameter used for transmitting the signal, and different values of the subcarrier spacing configuration parameter correspond to different quantities of slots in a radio frame; and sending, by the communications apparatus, the scrambled signal.
Timepiece sub-assembly including, on the one hand, a mobile timepiece element with at least a first annular peripheral surface of revolution about a pivot axis of said mobile element, and on the other hand, a device for guiding pivoting about a theoretical axis of a timepiece mechanism, wherein said first peripheral surface is magnetically charged, and in that said device includes either a first magnetically charged ring, or at least three first magnetically charged surfaces, oppositely charged to said first peripheral surface in order to repulse said first surface at a first interface, to maintain said mobile element in axial levitation in the direction of said theoretical axis, wherein said one mobile timepiece element includes said first and a second magnetically charged annular peripheral surfaces of revolution about the same pivot axis of said mobile element which are opposite to each other on either side of said mobile element, and wherein said device includes, either a second magnetically charged ring, or at least three second magnetically charged surfaces, oppositely charged to said second peripheral surface in order to repulse said second surface, at a second interface, in order to maintain said mobile element in axial levitation in the direction of said theoretical axis, characterised in that each said at least three first surfaces and each site at least three second surfaces includes means of emitting several magnetic fields in the same sense at the respective interface (41, 42) and in directions substantially parallel to each other, at said respective interface (41, 42), including at least a first inner field on an inner radius with respect to said theoretical axis said inner radius has a value less than that of the mean radius of said peripheral surface (31, 32) which is opposite thereto, a second normal field on a normal radius of equal value to said mean radius, and a third outer field on an outer radius of greater value than that of said mean radius, said second normal field being of lower intensity than that of said inner field and than that of said outer field so as to return said pivot axis of said mobile element to conformity with said theoretical axis after any disturbance experienced by said sub-assembly.
A magnetoresistive random-access memory, MRAM, comprising: a magnetic tunnel junction, MTJ, formed in a common interlayer metal dielectric, IMD, layer with one or more logic elements, said MTJ comprising a hard mask, wherein the hard mask is connected directly to a top electrode, wherein, the MTJ is connected to a bottom metal line in a bottom IMD layer and a top via connected to a top IMD layer, wherein the MTJ is connected to the top via directly through the top electrode, wherein the MTJ extends between one or more bottom cap layers configured to separate the common IMD layer and the bottom IMD layer, wherein at least one bottom cap layer abuts the common IMD layer and at least one bottom cap layer abuts the bottom IMD layer, and at least one top cap layer configured to separate the common IMD layer and the top IMD layer, wherein the top electrode abuts the at least one top cap layer. a magnetic tunnel junction, MTJ, formed in a common interlayer metal dielectric, IMD, layer with one or more logic elements, said MTJ comprising a hard mask, wherein the hard mask is connected directly to a top electrode, wherein, the MTJ is connected to a bottom metal line in a bottom IMD layer and a top via connected to a top IMD layer, wherein the MTJ is connected to the top via directly through the top electrode, wherein the MTJ extends between one or more bottom cap layers configured to separate the common IMD layer and the bottom IMD layer, wherein at least one bottom cap layer abuts the common IMD layer and at least one bottom cap layer abuts the bottom IMD layer, and at least one top cap layer configured to separate the common IMD layer and the top IMD layer, wherein the top electrode abuts the at least one top cap layer.