mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a first device within a basic services set, BSS, the BSS including an access point device, wherein the first device communicates with a second device over a first channel, an instruction to cease communicating over the first channel and an indication of a second channel, wherein the instruction and the indication correspond to an access point-initiated channel switch to switch the BSS from the first channel to the second channel due to detection of an interference signal on the first channel that satisfies a radar signal detection criterion; determining whether the second device is within the BSS; and in response to determining that the second device is within the BSS, establishing, by the first device, a direct link with the second device to enable communication between the first device and the second device bypassing the access point device using the second channel, wherein establishing the direct link enables a quality of service criterion for data exchange between the first device and the second device to be satisfied by avoiding a non-communication period on the first channel prior to completion of the access point-initiated channel switch. receiving, at a first device within a basic services set, BSS, the BSS including an access point device, wherein the first device communicates with a second device over a first channel, an instruction to cease communicating over the first channel and an indication of a second channel, wherein the instruction and the indication correspond to an access point-initiated channel switch to switch the BSS from the first channel to the second channel due to detection of an interference signal on the first channel that satisfies a radar signal detection criterion; determining whether the second device is within the BSS; and in response to determining that the second device is within the BSS, establishing, by the first device, a direct link with the second device to enable communication between the first device and the second device bypassing the access point device using the second channel, wherein establishing the direct link enables a quality of service criterion for data exchange between the first device and the second device to be satisfied by avoiding a non-communication period on the first channel prior to completion of the access point-initiated channel switch.
A method, comprising: receiving, by a wireless docking center device, at least from one or more wireless peripheral devices (120A-H), capability-related information characterizing at least the one or more wireless peripheral devices (120A-H); receiving, by the wireless docking center device, from a wireless dockee device, or other capable device, planned use-related information of the wireless dockee device; and analyzing, by the wireless docking center device, the received capability-related information and planned use-related information, and performing an action with respect to one or more wireless peripheral devices (120A-H) capable of performing at least a portion of services required by the planned use-related information of the wireless dockee device, based on the analysis. receiving, by a wireless docking center device, at least from one or more wireless peripheral devices (120A-H), capability-related information characterizing at least the one or more wireless peripheral devices (120A-H); receiving, by the wireless docking center device, from a wireless dockee device, or other capable device, planned use-related information of the wireless dockee device; and analyzing, by the wireless docking center device, the received capability-related information and planned use-related information, and performing an action with respect to one or more wireless peripheral devices (120A-H) capable of performing at least a portion of services required by the planned use-related information of the wireless dockee device, based on the analysis.
A saddle-riding type vehicle, comprising a front cover disposed at the front part of a chassis; a light source disposed on the front cover, and a light guide that is disposed on the front cover, extends in the width direction of the chassis, and is to receive light moving from the light source in the width direction of the chassis, said light guide comprising: a first emission face; and a second emission face; wherein the light guide has a flat form with the length of the light guide in the front and back direction of the chassis and the length of the light guide in the normal direction (N37U) of the first emission face being shorter than the length of the light guide in the width direction of the chassis, wherein the light guide further comprises a structured face having a plurality of optical structures that are disposed on the opposite side from the first emission face and are disposed aligned with one another, and wherein the optical structures are grooves inclined with respect to the width direction of the chassis, have a lateral cross sectional shape in which the width narrows toward the groove bottom, and of the two ends of the optical structures, the one disposed on the second emission face side is disposed farther away from the light source than the other end, wherein the first emission face faces up from the chassis and emits light; and the second emission face faces forward from the chassis and emits light; the light source and the light guide are disposed in an opening of the front cover; and the light guide extends diagonally downward toward the center of the saddle-riding type vehicle. a first emission face; and a second emission face; wherein the light guide has a flat form with the length of the light guide in the front and back direction of the chassis and the length of the light guide in the normal direction (N37U) of the first emission face being shorter than the length of the light guide in the width direction of the chassis, wherein the light guide further comprises a structured face having a plurality of optical structures that are disposed on the opposite side from the first emission face and are disposed aligned with one another, and wherein the optical structures are grooves inclined with respect to the width direction of the chassis, have a lateral cross sectional shape in which the width narrows toward the groove bottom, and of the two ends of the optical structures, the one disposed on the second emission face side is disposed farther away from the light source than the other end, wherein the first emission face faces up from the chassis and emits light; and the second emission face faces forward from the chassis and emits light; the light source and the light guide are disposed in an opening of the front cover; and the light guide extends diagonally downward toward the center of the saddle-riding type vehicle.
A shower distributor arrangement device, comprising - a cylindric distributor housing body with a fixation rear side formed by a rear end face, which fixation rear side is configured for wall-sided fixation of the distributor housing body, an operator control front side and three fluid connectors arranged on the circumference of the cylindric distributor housing body between the fixation rear side and the operator control front side, wherein the three fluid connectors include a first and a second fluid outlet connector (2, 3) for connecting to a respective shower supply line (17, 18) and a fluid inlet connector, and - a switch-over valve intended for selectively connecting the fluid inlet connector to the first and/or the second fluid outlet connector and a user operable operator control element disposed on the operator control front side, which operator control element is a push button actuatable from the front, - wherein a depth distance between an operator control element front side and a front side of a foremost one of the three fluid connectors (2, 3, 16) is less than 50 mm and/or less than one third of a total depth of the distributor housing body with the switch-over valve and/or less than a smallest diameter of the distributor housing body perpendicular to a longitudinal axis of the distributor housing body extending in the connecting direction between operator control front side and fixation rear side and/or less than a smallest diameter of the three fluid connectors. - a cylindric distributor housing body with a fixation rear side formed by a rear end face, which fixation rear side is configured for wall-sided fixation of the distributor housing body, an operator control front side and three fluid connectors arranged on the circumference of the cylindric distributor housing body between the fixation rear side and the operator control front side, wherein the three fluid connectors include a first and a second fluid outlet connector (2, 3) for connecting to a respective shower supply line (17, 18) and a fluid inlet connector, and - a switch-over valve intended for selectively connecting the fluid inlet connector to the first and/or the second fluid outlet connector and a user operable operator control element disposed on the operator control front side, which operator control element is a push button actuatable from the front, - wherein a depth distance between an operator control element front side and a front side of a foremost one of the three fluid connectors (2, 3, 16) is less than 50 mm and/or less than one third of a total depth of the distributor housing body with the switch-over valve and/or less than a smallest diameter of the distributor housing body perpendicular to a longitudinal axis of the distributor housing body extending in the connecting direction between operator control front side and fixation rear side and/or less than a smallest diameter of the three fluid connectors.
Method for monitoring an electrical energy supply network or a subnetwork of the energy supply network, wherein measurement values detected at at least two measurement points of the energy supply network or subnetwork are evaluated, wherein - phase angle values are evaluated as measurement values or phase angle values determined using the measurement values are evaluated, - a check is carried out based on the phase angle values to determine whether the energy supply network or the subnetwork is operating synchronously, and, - in the event of an asynchronism identified based on the phase angle values, an island identification signal is generated, characterized in that - the phase angle values are sorted so as to form a sorted phase angle order, - proceeding from the largest or smallest phase angle value - subsequently referred to as starting phase value - of the sorted phase angle order, a phase angle difference from the subsequent phase angle value in the phase angle order, that is to say the second-largest or second-smallest phase angle value, is determined, - the island identification signal is generated when the phase angle difference between the starting phase value and the subsequent phase angle value exceeds a prescribed alarm threshold value in terms of magnitude, and - the starting phase value and the subsequent phase angle value are considered to be synchronous when the phase angle difference between the starting phase value and the subsequent phase angle value undershoots the prescribed alarm threshold value in terms of magnitude. - phase angle values are evaluated as measurement values or phase angle values determined using the measurement values are evaluated, - a check is carried out based on the phase angle values to determine whether the energy supply network or the subnetwork is operating synchronously, and, - in the event of an asynchronism identified based on the phase angle values, an island identification signal is generated, characterized in that - the phase angle values are sorted so as to form a sorted phase angle order, - proceeding from the largest or smallest phase angle value - subsequently referred to as starting phase value - of the sorted phase angle order, a phase angle difference from the subsequent phase angle value in the phase angle order, that is to say the second-largest or second-smallest phase angle value, is determined, - the island identification signal is generated when the phase angle difference between the starting phase value and the subsequent phase angle value exceeds a prescribed alarm threshold value in terms of magnitude, and - the starting phase value and the subsequent phase angle value are considered to be synchronous when the phase angle difference between the starting phase value and the subsequent phase angle value undershoots the prescribed alarm threshold value in terms of magnitude.
A navigation system comprising: a tracker (44, 46, 48, 49) including an infrared, IR, transmitter, an IR receiver, one or more tracking markers, and one or more inertial sensors (60, 70) configured to generate inertial data; and a localization device including an IR receiver, an IR transmitter, and one or more tracking sensors and with the localization device being configured to utilize IR communication according to a first modulation method to: detect a position of the one or more tracking markers of the tracker with the one or more tracking sensors; and communicate, using the IR transmitter, with the IR receiver of the tracker to manage an operating parameter of the tracker; and wherein the localization device is configured to utilize IR communication according to a second modulation method different from the first modulation method to: wirelessly receive, with the IR receiver, the inertial data generated by the tracker and transmitted by the IR transmitter of the tracker in accordance with the managed operating parameter of the tracker.
A connector with a housing having a receptacle for at least one electrical connection element of at least one flat conductor to be connected to the housing, and a receptacle for a sealant, wherein the sealant receptacle is configured such that a sealant introduced into the sealant receptacle for sealing the connector can completely surround each of the flat conductors connected to the housing, and wherein on a wall (38, 40) of the housing delimiting the sealant receptacle, attachment elements (42, 44, 46) are provided for the sealant introduced into the sealant receptacle, characterized in that the number of flat conductors to be connected to the housing is at least two and the attachment elements (42, 44, 46) extend in a connection direction of the connector.
A rotary windrower comprising at least one windrower rotor which has a raking rotor having raking tines mounted to tine arms, and a control device with which a rotor height of the or each windrower rotor is automatically adjustable in operation in dependence on at least one metrologically detected parameter, wherein the rotor height of the or each windrower rotor is automatically adjustable in operation by the control device in dependence on the crop mass which is brought together in operation to form at least one windrow, characterised in that the rotary windrower has at least one sensor (11, 12) for determining a windrow cross-section of the or each windrow and at least one sensor for determining a moisture content of the crop material, wherein the control device is adapted to automatically adjust in operation the rotor height of the or each windrower rotor in dependence on the or each windrow cross-section and in dependence on the moisture content of the crop material.
A connector, in particular quick connector, for a fluid medium in a motor vehicle, in particular for a urea solution, the connector having a connection part, an assembly aid and an encapsulation, the connection part comprising two connection ends (4, 5), an inner duct connecting the connection ends (4, 5) to each other in order to conduct the fluid medium, the connection part having a central section between the connection ends (4, 5), the assembly aid being arranged on the outside of the connection part, at least in a portion of the central section, a heating means running along the assembly aid, the encapsulation covering at least some of the heating means, the assembly aid being arranged on the connection part by means of a force fit, characterised in that the assembly aid is elastic in a rubber-like manner.
A gas barrier laminate comprising a base and a gas barrier unit, the gas barrier unit comprising at least two inorganic layers, at least one of the at least two inorganic layers being a silicon oxynitride layer, the silicon oxynitride layer including a composition-gradient region that has a thickness of 25 nm or more, the composition-gradient region being a region in which a content ratio of oxygen decreases and a content ratio of nitrogen increases in a thickness direction toward the base, a ratio of the thickness of the composition-gradient region to the thickness of the entire silicon oxynitride layer being 0.15 or more and wherein a ratio of the thickness of the composition-gradient region to the thickness of the entire silicon oxynitride layer is 0.4 or less, a difference between a maximum value and a minimum value of a content rate of oxygen atoms with respect to a total content of oxygen atoms, nitrogen atoms, and silicon atoms in the composition-gradient region included in the silicon oxynitride layer is 10 to 60 atomic%, and a difference between a maximum value and a minimum value of a content rate of nitrogen atoms with respect to the total content of oxygen atoms, nitrogen atoms, and silicon atoms in the composition-gradient region included in the silicon oxynitride layer is 5 to 30 atomic%.
Wind energy installation comprising a blade rotor and a generator, having a rotor which has permanent magnets and has a direct drive connection to the blade rotor of the wind energy installation, and having a stator which has a laminated iron core, characterized in that the rotor is an internal rotor and the stator forms an outer ring which surrounds the rotor, in that the generator is formed without a supporting housing which completely surrounds the stator on the external circumference of the generator, in that the stator comprises a stiffening ring on its side facing away from a base plate and the iron core is arranged between the stiffening ring and the base plate and the stiffening ring is connected to the base plate via a plurality of axial supports, which rest on the outside against the iron core, and axial bolts which pass through the iron core, in that the annular stator is rigidly connected via the base plate to an annular flange which projects from a shaft body, and in that the laminate parts of the stator are connected to one another by adhesive bonding.
A method, comprising: applying a burst of thermal energy to a surface of a plurality of uncured compacted composite layers; capturing a plurality of digital thermographic images of the surface of the uncured compacted composite layers after applying the burst of thermal energy; using a computer processor, analyzing at least one heat characteristic of regions of the uncured compacted composite layers in the plurality of digital thermographic images to identify defect regions in which the at least one heat characteristic is different than surrounding regions, wherein the at least one heat characteristic of the uncured compacted composite layers comprises at least one of respective first derivative rates of change of temperature of the regions over a plurality of digital thermographic images, and respective second derivative rates of change of temperature of the regions over a plurality of digital thermographic images, and wherein the at least one heat characteristic of a subject region is different than surround regions if a peak of a first derivative rate of change of temperature for the subject region differs in time from a peak of a first derivative rate of change of temperature of at least one surrounding regions by more than a threshold amount or if a peak of a second derivative rate of change of temperature for the subject region differs in time from a peak of a second derivative rate of change of temperature of at least one surrounding regions by more than a threshold amount; and upon identifying a defect region, outputting an alert. applying a burst of thermal energy to a surface of a plurality of uncured compacted composite layers; capturing a plurality of digital thermographic images of the surface of the uncured compacted composite layers after applying the burst of thermal energy; using a computer processor, analyzing at least one heat characteristic of regions of the uncured compacted composite layers in the plurality of digital thermographic images to identify defect regions in which the at least one heat characteristic is different than surrounding regions, wherein the at least one heat characteristic of the uncured compacted composite layers comprises at least one of respective first derivative rates of change of temperature of the regions over a plurality of digital thermographic images, and respective second derivative rates of change of temperature of the regions over a plurality of digital thermographic images, and wherein the at least one heat characteristic of a subject region is different than surround regions if a peak of a first derivative rate of change of temperature for the subject region differs in time from a peak of a first derivative rate of change of temperature of at least one surrounding regions by more than a threshold amount or if a peak of a second derivative rate of change of temperature for the subject region differs in time from a peak of a second derivative rate of change of temperature of at least one surrounding regions by more than a threshold amount; and upon identifying a defect region, outputting an alert.
Multi-layer film comprising at least three layers, with two outer layers, and one core layer, wherein: • the core layer comprises an ethylene copolymer comprising 1-octene and having a density between > 0.910 g/cm 3 and 0.925 g/cm 3, wherein further • the first outer layer comprises an ethylene homopolymer having a density of between > 0.915 g/cm 3 and 0.930 g/cm 3, wherein further • the second outer layer comprises an optional first ethylene copolymer and a second ethylene copolymer having a density of between 0.850 g/cm 3 and < 0.890 g/cm 3. • the core layer comprises an ethylene copolymer comprising 1-octene and having a density between > 0.910 g/cm 3 and 0.925 g/cm 3, wherein further • the first outer layer comprises an ethylene homopolymer having a density of between > 0.915 g/cm 3 and 0.930 g/cm 3, wherein further • the second outer layer comprises an optional first ethylene copolymer and a second ethylene copolymer having a density of between 0.850 g/cm 3 and < 0.890 g/cm 3.
A release apparatus for releasing a satellite, said release apparatus comprising a release plunger which can be preloaded by a release spring and which is held in a preloaded position by two two-armed pivot levers (20, 22) pivotable about a respective pivot axis (S1, S2), wherein each pivot lever (20, 22) can be held against the force of a spring (28, 30) in a holding position by a release element (16, 18), characterized in that one arm of each pivot lever (20, 22) is provided with an additional weight (60, 62).