mhurhangee/ep-ind-claims huggingface dataset:
A seismic survey method, comprising: calibrating (602, 630) a declinometer on a vessel, the declinometer comprising a magnetometer, an inertial measurement unit and a global positioning system heading device; obtaining one or more seismic signals over a temporal period and over a spatial region with one or more seismic sensors in a survey area by towing at least one streamer having the one or more seismic sensors behind the vessel; obtaining one or more local geomagnetic field measurements relative to the one or more seismic sensors, from one or more geomagnetic heading devices associated with the one or more seismic sensors, the one or more local geomagnetic field measurements subject to variations in declination over the temporal period and over the spatial region; measuring temporal and spatial declination parameters during the seismic survey to account for variations in declination over the temporal period and over the spatial region by obtaining position measurements and geomagnetic field measurements at the vessel using the calibrated declinometer; correcting (610, 646, 700), over the temporal period and over the spatial region, the one or more local geomagnetic field measurements based on the temporal and spatial declination parameters; and correlating, over the temporal period and over the spatial region, the one or more corrected geomagnetic field measurements with the one or more seismic signals. calibrating (602, 630) a declinometer on a vessel, the declinometer comprising a magnetometer, an inertial measurement unit and a global positioning system heading device; obtaining one or more seismic signals over a temporal period and over a spatial region with one or more seismic sensors in a survey area by towing at least one streamer having the one or more seismic sensors behind the vessel; obtaining one or more local geomagnetic field measurements relative to the one or more seismic sensors, from one or more geomagnetic heading devices associated with the one or more seismic sensors, the one or more local geomagnetic field measurements subject to variations in declination over the temporal period and over the spatial region; measuring temporal and spatial declination parameters during the seismic survey to account for variations in declination over the temporal period and over the spatial region by obtaining position measurements and geomagnetic field measurements at the vessel using the calibrated declinometer; correcting (610, 646, 700), over the temporal period and over the spatial region, the one or more local geomagnetic field measurements based on the temporal and spatial declination parameters; and correlating, over the temporal period and over the spatial region, the one or more corrected geomagnetic field measurements with the one or more seismic signals.
A gas turbine engine comprising: structure having movable portions and static portions; and at least a portion of the structure including a composite material having an electrically conductive path formed from carbon nanotubes configured for conducting electrical signals therealong, characterized in that a portion of the composite material includes fibers and a layer of resin impregnated with a predetermined volume percentage of carbon nanotubes surrounding the fibers and another portion of the composite material includes fibers (102a, 104a, 108a, 110a) and a layer of resin (102b, 104b, 108b, 110b) unfilled with carbon nanotubes surrounding the fibers structure having movable portions and static portions; and at least a portion of the structure including a composite material having an electrically conductive path formed from carbon nanotubes configured for conducting electrical signals therealong, characterized in that a portion of the composite material includes fibers and a layer of resin impregnated with a predetermined volume percentage of carbon nanotubes surrounding the fibers and another portion of the composite material includes fibers (102a, 104a, 108a, 110a) and a layer of resin (102b, 104b, 108b, 110b) unfilled with carbon nanotubes surrounding the fibers
A metal matrix composite material comprising particles of shape-memory alloy powder having a copper base with a concentration of between 45% and 70% by volume in relation to the total volume of the material, characterised in that said powder particles are supported by a metal matrix comprising metals of melting point below 330°C or alloys of said metals with a solidifying point below 330°C.
Universal joint for a steering shaft for a motor vehicle, comprising a spider having two pairs of pins which cross at right angles to one another and which can each be connected via a yoke (14, 32) to a shaft element of the steering shaft, wherein each pin is radially mounted in its radial direction in the respective yoke (14, 32) via a radial bearing and wherein each pin comprises a respective end face and wherein the radial bearing comprises a bearing bush, wherein the bearing bush comprises a base and an outer ring in one piece, wherein the end faces of at least one of the pairs of pins are mounted on the base of the bearing bush in their axial direction, characterized in that the end faces of the pins of at least one of the pairs of pins are in contact with the base under purely elastic preloading, wherein the end faces which are in contact are designed to be convex in the contact region, and the base is purely elastically deformed to form the preloading, wherein the base of the bearing bush is designed to be elastic and, starting from its centre, in the state prior to assembly, comprises, at least to the extent of 25%, a planar surface for contacting the end face of a pin.
Silo, e.g. a rectangular-shaped silo tower, having an arrangement that for the purpose of filling said silo comprises a rotationally driven screw conveyor within a casing surrounding the latter, characterized in that for the purpose of introducing chippings or the like in a largerly dust-free manner into the silo the screw conveyor is surrounded inside the silo by a casing that is embodied as a cage and extends in the vertical direction almost from the base to the silo cover.
A vacuum pump, called a "pump" in the following, comprising a rotor shaft rotatable about a rotational axis; a conveying pump for conveying an operating medium, in particular a lubricant, to supply the operating medium to a rotary bearing which serves for the rotatable support of the rotor shaft; and at least one first return means and one second return means for the operating medium, wherein the pump is connectable to a recipient in every spatial position in which the rotational axis includes an angle to the vertical in the range from and including 0 degrees up to and including 180 degrees; and wherein the conveying pump and the two return means (114, 116) are arranged at the pump such that the operating medium can be returned from the rotary bearing to the conveying pump via at least one of the two return means (114, 116) in every spatial position; and wherein the conveying pump has at least one conveyor rotatable about an axis of rotation, characterized in that the conveying pump is arranged relative to the rotor shaft such that the axis of rotation extends perpendicular to the rotational axis.
A powder metallurgical molded part comprising a disk-like or plate-like main body and a multiplicity of knob-shaped and/or ridge-shaped elevations which are arranged next to one another in a row direction and thereby form a row and which have a height (h1, h2) perpendicular to the main plane of the main body and which each have a cross section with two side flanks, which lead from an outer end contour, as seen in the height direction, of the elevation via rounded corner portions (4, 4') into curved portions (6, 6') with a curve radius (R, R'), wherein the curve radius (R, R') merges into the surface contour of the main body, wherein - a rectilinear flank portion of the side flank or - a tangent of the side flank lying at the point where the rounded corner portion merges into the curved portion is arranged at an angle of inclination (α1, α1') with respect to the main plane of the main body, and wherein elevations are arranged on at least one side (9, 10) of the two sides (9, 10) of the main body which lie opposite one another in the height direction, characterized in that at least two different angles of inclination (α1, α1'; α2, α2') are present on the same side (9, 10) of the main body, wherein the at least two different angles of inclination (α1, α1'; α2, α2') represent at least a first geometry (h1, r1, r1', R1, R1', α1, α1') and a second geometry (h2, r2, r2', R2, R2', α2, α2'). - a rectilinear flank portion of the side flank or - a tangent of the side flank lying at the point where the rounded corner portion merges into the curved portion
A method comprising: aggregating a plurality of serving cells; determining that a power headroom report is triggered; determining that an uplink resource for a new transmission on a serving cell of the plurality of serving cells is allocated at a first time after the power headroom report is triggered, wherein the uplink resource for the new transmission allocated at the first time is a configured grant; determining a power headroom value for each serving cell of the plurality of serving cells being activated based on information received prior to and including a predetermined time before the start of the uplink resource at the first time, wherein the information comprises downlink control information, higher layer signaling for configured grants, and sounding reference signal transmissions; generating a power headroom report medium access control control element comprising at least the power headroom value for each serving cell of the plurality of serving cells being activated; and transmitting the power headroom report medium access control control element on the uplink resource allocated at the first time. aggregating a plurality of serving cells; determining that a power headroom report is triggered; determining that an uplink resource for a new transmission on a serving cell of the plurality of serving cells is allocated at a first time after the power headroom report is triggered, wherein the uplink resource for the new transmission allocated at the first time is a configured grant; determining a power headroom value for each serving cell of the plurality of serving cells being activated based on information received prior to and including a predetermined time before the start of the uplink resource at the first time, wherein the information comprises downlink control information, higher layer signaling for configured grants, and sounding reference signal transmissions; generating a power headroom report medium access control control element comprising at least the power headroom value for each serving cell of the plurality of serving cells being activated; and transmitting the power headroom report medium access control control element on the uplink resource allocated at the first time.
A system, comprising: an unwound battery electrode assembly comprising a mandrel, the mandrel including a positive portion, a negative portion and a removable portion connecting the positive portion to the negative portion and a passage inbetween the negative portion and the positive portion; a coiling device comprising: a winding apparatus; a platform on the coiling device holding a base and a shuttle holding the unwound battery electrode assembly; a positive electrode positioned in a first portion of the shuttle and welded to the positive portion of the mandrel; a negative electrode positioned in a second portion of the shuttle and welded to the negative portion of the mandrel; a first spool, wherein the first spool provides a separator strip; a second spool, wherein the second spool accepts the separator strip; and one or more heating elements (50, 52), wherein the separator strip is threaded through the passage between the positive portion and the negative portion of the mandrel. an unwound battery electrode assembly comprising a mandrel, the mandrel including a positive portion, a negative portion and a removable portion connecting the positive portion to the negative portion and a passage inbetween the negative portion and the positive portion; a coiling device comprising: a winding apparatus; a platform on the coiling device holding a base and a shuttle holding the unwound battery electrode assembly; a positive electrode positioned in a first portion of the shuttle and welded to the positive portion of the mandrel; a negative electrode positioned in a second portion of the shuttle and welded to the negative portion of the mandrel; a first spool, wherein the first spool provides a separator strip; a second spool, wherein the second spool accepts the separator strip; and one or more heating elements (50, 52), a winding apparatus; a platform on the coiling device holding a base and a shuttle holding the unwound battery electrode assembly; a positive electrode positioned in a first portion of the shuttle and welded to the positive portion of the mandrel; a negative electrode positioned in a second portion of the shuttle and welded to the negative portion of the mandrel; a first spool, wherein the first spool provides a separator strip; a second spool, wherein the second spool accepts the separator strip; and one or more heating elements (50, 52),
Internal gear fluid machine, with - a first gearwheel having an outer toothing and mounted for rotation about a first axis of rotation and a second gearwheel having an inner toothing regionally meshing with the outer toothing in an engagement region and mounted for rotation about a second axis of rotation different from the first axis of rotation, wherein - a filler piece is arranged between the first gearwheel and the second gearwheel away from the engagement region, which filler piece bears on one side against the outer toothing and on the other side against the inner toothing in order to divide a fluid space present between the first gearwheel and the second gearwheel into a first fluid chamber and a second fluid chamber, wherein - housing walls of a machine housing of the internal gear fluid machine are arranged on both sides of the first gearwheel and the second gearwheel in the axial direction with respect to the first axis of rotation, and the filler piece is mounted on the machine housing by means of at least one retaining pin engaging on at least one of the housing walls, wherein the retaining pin is rotatably mounted on the housing wall by means of at least one intermediate piece, wherein the housing wall consists of a housing wall material and the intermediate piece consists of an intermediate piece material different from the housing wall material, characterised in that the intermediate piece material has a greater value of a material characteristic than the housing wall material, wherein the material characteristic is the modulus of elasticity, the tensile strength, the yield strength, the 0.2 % proof stress or the elastic limit. - a first gearwheel having an outer toothing and mounted for rotation about a first axis of rotation and a second gearwheel having an inner toothing regionally meshing with the outer toothing in an engagement region and mounted for rotation about a second axis of rotation different from the first axis of rotation, wherein - a filler piece is arranged between the first gearwheel and the second gearwheel away from the engagement region, which filler piece bears on one side against the outer toothing and on the other side against the inner toothing in order to divide a fluid space present between the first gearwheel and the second gearwheel into a first fluid chamber and a second fluid chamber, wherein - housing walls of a machine housing of the internal gear fluid machine are arranged on both sides of the first gearwheel and the second gearwheel in the axial direction with respect to the first axis of rotation, and the filler piece is mounted on the machine housing by means of at least one retaining pin engaging on at least one of the housing walls,
A method in a network node for handling a traffic flow of a User Equipment, UE,, which network node is related to a local service cloud, and which traffic flow is related to an application session to be served by the local service cloud, the method comprising: identifying a UE Internet Protocol, IP, address of the UE, wherein the UE is a wireless terminal operating in a wireless radio network, characterized in that the method further comprises: when the identified UE IP address is used by another UE in a first Virtual Local Area Network, VLAN, comprised in the local service cloud, selecting a second VLAN comprised in the local service cloud for local break out of the traffic flow of the application session to the local service cloud, in which second VLAN the identified UE IP address is not used by another UE. identifying a UE Internet Protocol, IP, address of the UE, wherein the UE is a wireless terminal operating in a wireless radio network, characterized in that the method further comprises: when the identified UE IP address is used by another UE in a first Virtual Local Area Network, VLAN, comprised in the local service cloud, selecting a second VLAN comprised in the local service cloud for local break out of the traffic flow of the application session to the local service cloud, in which second VLAN the identified UE IP address is not used by another UE.
A cold-storage agent comprising: water; ammonium chloride; potassium chloride; and sodium sulfate, wherein content of the ammonium chloride, the potassium chloride, and the sodium sulfate satisfies the following Formula: 1.0 < ammonium chloride / potassium chloride + sodium sulfate < 5.0 water; ammonium chloride; potassium chloride; and sodium sulfate, wherein content of the ammonium chloride, the potassium chloride, and the sodium sulfate satisfies the following Formula: 1.0 < ammonium chloride / potassium chloride + sodium sulfate < 5.0
A system for treating a tooth, the system comprising one or more fluid reservoirs; a pump configured to pressurize one or more fluids supplied to the pump from the one or more fluid reservoirs; a fluid pathway arranged between the pump and an interface configured to provide a fluidic communication with a dental treatment apparatus, the fluid pathway including a fluid supply line to deliver the one or more fluids to the dental treatment apparatus; and a waste line to convey waste fluid away from the dental treatment apparatus; a waste reservoir; and a vacuum pump in fluid communication with the fluid supply and the fluid pathway, the vacuum pump configured to apply a negative pressure to draw fluid from the one or more fluid reservoirs and waste fluid from the dental treatment apparatus to the waste reservoir through said waste line. a pump configured to pressurize one or more fluids supplied to the pump from the one or more fluid reservoirs; a fluid pathway arranged between the pump and an interface configured to provide a fluidic communication with a dental treatment apparatus, the fluid pathway including a fluid supply line to deliver the one or more fluids to the dental treatment apparatus; and a waste line to convey waste fluid away from the dental treatment apparatus; a waste reservoir; and a vacuum pump in fluid communication with the fluid supply and the fluid pathway, the vacuum pump configured to apply a negative pressure to draw fluid from the one or more fluid reservoirs and waste fluid from the dental treatment apparatus to the waste reservoir through said waste line. a waste reservoir; and a vacuum pump in fluid communication with the fluid supply and the fluid pathway, the vacuum pump configured to apply a negative pressure to draw fluid from the one or more fluid reservoirs and waste fluid from the dental treatment apparatus to the waste reservoir through said waste line.
Method for operating an ultrasonic sensor of a vehicle, wherein the ultrasonic sensor is installed in a concealed manner such that a membrane of the ultrasonic sensor is connected to a vehicle part, wherein the instantaneous properties of the vehicle part influence a directional characteristic of the ultrasonic sensor, and wherein a threshold value for hiding interference signals is used in pulse echo measurements using the ultrasonic sensor, characterized in that the threshold value is adapted to the directional characteristic of the ultrasonic sensor that is predefined by the instantaneous properties of the vehicle part by: a) determining a temperature and determining the threshold value using a previously determined relationship between the temperature and the directional characteristic, or b) determining a resonant frequency of an oscillatory system formed from the membrane and the vehicle part, and determining the threshold value using a previously determined relationship between the resonant frequency and the directional characteristic. a) determining a temperature and determining the threshold value using a previously determined relationship between the temperature and the directional characteristic, or b) determining a resonant frequency of an oscillatory system formed from the membrane and the vehicle part, and determining the threshold value using a previously determined relationship between the resonant frequency and the directional characteristic.
A method of controlling travel of a vehicle equipped with an antilock braking system, the method comprising the steps of determining if there is potential for one or more wheels of the vehicle to lift off the ground, and if such a potential exists, deactivating the anti-lock braking system in respect of the wheels (14a, 14b, 14c) with the potential to lift off the ground so that the speed of these wheels (14a, 14b, 14c) is not taken into consideration when determining if anti-lock braking control is required, applying a low-level test braking force to the wheel or one of the wheels (14a, 14b, 14c) that has the potential to lift off the ground, monitoring the speed of the said wheel or wheels (14a, 14b, 14c), and if the test braking force causes the speed of the or one or more of the monitored wheels (14a, 14b, 14c) to fall below a predetermined percentage of the vehicle speed, triggering a stability alarm signal and/or initiating a control intervention to reduce the vehicle speed, characterised in that if it is determined that there is potential for one or more of the wheels (14a, 14b, 14c, 16a, 16b, 16c) to lift off the ground during braking following braking demand from a driver of the vehicle (10, 12), or if the driver issues a demand for braking during the application of a braking test pulse, where the braking demand requires a braking force which is below a predetermined level, the method also includes meeting the braking demand by increasing the braking force applied to the wheels (16a, 16b, 16c) without potential to lift off the ground by a greater amount than the braking force applied to the wheels (14a, 14b, 14c) with potential to lift off the ground.