mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving a temporal and/or spatial volatility index (305, 321) representing volatility data for at least one weather attribute for at least one geographic point or for at least one geographic area represented by at least one geographic point, wherein the volatility data represents how much the at least one weather attribute changes over the temporal domain at each of the at least one geographic points, over the spatial domain, or a combination thereof; and interpolating subsequent weather data (301, 323) collected from the at least one geographic point or from at least one geographic area represented by the at least one geographic point using an interpolation time limit, distance limit or a combination thereof for each of the at least one geographic point, wherein the interpolation time limit, distance limit or combination thereof varies based on the volatility index (305, 321) for the respective geographic point. receiving a temporal and/or spatial volatility index (305, 321) representing volatility data for at least one weather attribute for at least one geographic point or for at least one geographic area represented by at least one geographic point, wherein the volatility data represents how much the at least one weather attribute changes over the temporal domain at each of the at least one geographic points, over the spatial domain, or a combination thereof; and interpolating subsequent weather data (301, 323) collected from the at least one geographic point or from at least one geographic area represented by the at least one geographic point using an interpolation time limit, distance limit or a combination thereof for each of the at least one geographic point, wherein the interpolation time limit, distance limit or combination thereof varies based on the volatility index (305, 321) for the respective geographic point.
A method, comprising: determining, at a first ring port of a first switching device, a ring failure in an Ethernet ring; determining whether the first ring port of the first switching device is situated on a same side of the Ethernet ring as a node designated as a ring protection link, RPL, owner; and upon determining the first ring port of the first switching device is not situated on a same side of the Ethernet ring as a node designated as a ring protection link, RPL, owner, transmitting a VLAN Event message on a second ring port of the first switching device towards a provider edge, PE, node for activating pseudowires, PWs, at the PE node for virtual local area networks, VLANs, of the first switching device, wherein the VLAN Event message comprises a type-length-value, TLV, that encodes the VLANs of the first switching device for activating the PWs at the PE node;the method further comprising: designating the first switching device of the Ethernet ring as an owner of the VLANs; and identifying the second ring port of the first switching device that receives a message from the node designated as the RPL owner; wherein identifying the second ring port comprises activating PWs at a PE node for the VLANs of the first switching device. determining, at a first ring port of a first switching device, a ring failure in an Ethernet ring; determining whether the first ring port of the first switching device is situated on a same side of the Ethernet ring as a node designated as a ring protection link, RPL, owner; and upon determining the first ring port of the first switching device is not situated on a same side of the Ethernet ring as a node designated as a ring protection link, RPL, owner, transmitting a VLAN Event message on a second ring port of the first switching device towards a provider edge, PE, node for activating pseudowires, PWs, at the PE node for virtual local area networks, VLANs, of the first switching device, wherein the VLAN Event message comprises a type-length-value, TLV, that encodes the VLANs of the first switching device for activating the PWs at the PE node;the method further comprising: designating the first switching device of the Ethernet ring as an owner of the VLANs; and identifying the second ring port of the first switching device that receives a message from the node designated as the RPL owner; designating the first switching device of the Ethernet ring as an owner of the VLANs; and identifying the second ring port of the first switching device that receives a message from the node designated as the RPL owner; wherein identifying the second ring port comprises activating PWs at a PE node for the VLANs of the first switching device.
A method of operating a node of a 4-branch multiple-input-multiple-output, MIMO, radio access network, the method comprising: transmitting (1165, 1195) a first hybrid automatic repeat request, HARQ, process identification and a second hybrid automatic repeat request process identification over a downlink signaling channel to a wireless terminal for a first MIMO transmission time interval, TTI, wherein the first HARQ process identification is mapped to a first MIMO data transmission layer, and wherein the second HARQ process identification is mapped to second and third MIMO data transmission layers; transmitting (1167, 1197) first, second, and third data blocks over the first, second, and third MIMO data transmission layers, respectively, to the wireless terminal for the first MIMO transmission time interval; responsive to receiving an acknowledgment, ACK, message associated with the first HARQ process identification from the wireless terminal, transmitting (1167, 1197) a fourth data block over the first MIMO data transmission layer to the wireless terminal for a second MIMO transmission time interval,; and responsive to receiving a negative acknowledgment, NACK, message associated with the second HARQ process identification from the wireless terminal, retransmitting (1167, 1197) the second and third data blocks over the second and third MIMO data transmission layers to the wireless terminal for the second MIMO transmission time interval. transmitting (1165, 1195) a first hybrid automatic repeat request, HARQ, process identification and a second hybrid automatic repeat request process identification over a downlink signaling channel to a wireless terminal for a first MIMO transmission time interval, TTI, wherein the first HARQ process identification is mapped to a first MIMO data transmission layer, and wherein the second HARQ process identification is mapped to second and third MIMO data transmission layers; transmitting (1167, 1197) first, second, and third data blocks over the first, second, and third MIMO data transmission layers, respectively, to the wireless terminal for the first MIMO transmission time interval; responsive to receiving an acknowledgment, ACK, message associated with the first HARQ process identification from the wireless terminal, transmitting (1167, 1197) a fourth data block over the first MIMO data transmission layer to the wireless terminal for a second MIMO transmission time interval,; and responsive to receiving a negative acknowledgment, NACK, message associated with the second HARQ process identification from the wireless terminal, retransmitting (1167, 1197) the second and third data blocks over the second and third MIMO data transmission layers to the wireless terminal for the second MIMO transmission time interval.
A crystal of -[4-(carboxymethyl)thiazol-2-ylthio]-N-{[4-(3,4-dichlorobenzyl)morpholin-2-yl]methyl}acetamide hydrobromide, showing a powder X-ray diffraction spectrum having peaks at diffraction angles represented by 2θ of 20.9°, 22.3°, 24.1° and/or 25.6° (each ±0.2°) as measured under the following conditions: X-ray tube: Cu Kα1, tube current: 40 mA, tube voltage: 40 kV, scan rate: 4°/min, measurement range: 2θ = 2 to 35°.
Camera for the three-dimensional measurement of a dental object, comprising at least one light source that emits an illumination beam, at least one projection mask that produces a projection pattern, focusing optics that display the projection pattern in a plane of sharp focus at a defined focal distance relative to the dental camera, wherein the projection pattern projected onto the object is reflected by the object as an observation beam and is acquired by means of a sensor, wherein the focusing optics can be controlled in such a way that, during the measurement of the object, the focal distance of the plane of sharp focus relative to the camera can be adjusted incrementally between a number of defined scan positions, wherein an observation mask is disposed in the beam path of the observation beam in front of the sensor, wherein the observation mask is fixedly aligned relative to the projection mask, wherein the observation mask consists of a plurality of observation mask elements containing a variety of color filters (14, 30, 31, 32, 33), characterized in that the projection mask likewise consists of a plurality of projection pattern elements containing a variety of color filters (13, 20, 21, 22, 23).
A magnetic tunnel junction, MTJ, device (100, 101), comprising: a spin-orbit torque, SOT, layer for providing therethrough at least a write current of said MTJ device; a hard-mask layer used to define a shape of the SOT layer; a magnetic tunnel-junction, MTJ, arranged between the SOT layer and the hard-mask layer used to define the shape of the SOT layer, including a magnetic reference layer, a magnetic free layer, and a non-magnetic barrier layer separating the magnetic reference layer and the magnetic free layer; at least two electrical accesses (140, 142) arranged to contact the SOT layer to inject/extract the write current, a ferromagnetic element configured to induce a magnetic field in the magnetic free layer in a direction of the write current through the SOT layer, said ferromagnetic element being at least one of: a ferromagnetic sublayer of the hard-mask layer used to define the shape of the SOT layer, and a material of at least one of the at least two electrical accesses; and the MTJ device further comprising a further hard-mask layer used to define a shape of the MTJ and arranged between the MTJ and the hard-mask layer used to define a shape of the SOT layer. a spin-orbit torque, SOT, layer for providing therethrough at least a write current of said MTJ device; a hard-mask layer used to define a shape of the SOT layer; a magnetic tunnel-junction, MTJ, arranged between the SOT layer and the hard-mask layer used to define the shape of the SOT layer, including a magnetic reference layer, a magnetic free layer, and a non-magnetic barrier layer separating the magnetic reference layer and the magnetic free layer; at least two electrical accesses (140, 142) arranged to contact the SOT layer to inject/extract the write current, a ferromagnetic element configured to induce a magnetic field in the magnetic free layer in a direction of the write current through the SOT layer, said ferromagnetic element being at least one of: a ferromagnetic sublayer of the hard-mask layer used to define the shape of the SOT layer, and a material of at least one of the at least two electrical accesses; and a ferromagnetic sublayer of the hard-mask layer used to define the shape of the SOT layer, and a material of at least one of the at least two electrical accesses; and the MTJ device further comprising a further hard-mask layer used to define a shape of the MTJ and arranged between the MTJ and the hard-mask layer used to define a shape of the SOT layer.
A mobile terminal, the mobile terminal comprising: one or more driver circuits; a printed circuit board including the one or more driver circuits; a speaker transducer in electrical connection with one of the one or more driver circuits; and a coil disposed on the printed circuit board and in electrical connection with one of the one or more driver circuits, the coil being configured to generate a magnetic field for being picked-up by a hearing aid device worn by a user of the mobile terminal, when the mobile terminal is positioned proximate the hearing aid device. one or more driver circuits; a printed circuit board including the one or more driver circuits; a speaker transducer in electrical connection with one of the one or more driver circuits; and a coil disposed on the printed circuit board and in electrical connection with one of the one or more driver circuits, the coil being configured to generate a magnetic field for being picked-up by a hearing aid device worn by a user of the mobile terminal, when the mobile terminal is positioned proximate the hearing aid device.
A control valve for a steering assembly for steering a drill string, the steering assembly including a piston flow channel in fluid communication with a piston bore, a piston being movable within the piston bore, the piston being coupled to a steering pad for applying force against a wellbore wall to steer a direction of the drill string, the control valve comprising: a valve body including an axial bore and a radial orifice (234a,234b,234c) in fluid communication with the axial bore, the valve body being arranged in use such that flow passing through the axial bore passes through the radial orifice (234a,234b,234c) and into the piston flow channel in fluid communication with the piston bore to exert pressure against the piston coupled to the steering pad; and a rotary valve element disposed within the axial bore and including an actuation flow channel, wherein the rotary valve element is rotatable with respect to the axial bore to change flow through the actuation channel and the radial orifice (234a,234b,234c) to modify fluid pressure within the piston flow channel that is exerted against the piston, the rotary valve element being rotatable relative to the valve body to increase or decrease flow toward the piston for controlling actuation of the piston; and characterized by a stationary seal member disposed within the axial bore of the valve body and defining an axial seal bore and a radial aperture (237a,237b,237c) in fluid communication with the radial orifice (234a,234b,234c). a valve body including an axial bore and a radial orifice (234a,234b,234c) in fluid communication with the axial bore, the valve body being arranged in use such that flow passing through the axial bore passes through the radial orifice (234a,234b,234c) and into the piston flow channel in fluid communication with the piston bore to exert pressure against the piston coupled to the steering pad; and a rotary valve element disposed within the axial bore and including an actuation flow channel, wherein the rotary valve element is rotatable with respect to the axial bore to change flow through the actuation channel and the radial orifice (234a,234b,234c) to modify fluid pressure within the piston flow channel that is exerted against the piston, the rotary valve element being rotatable relative to the valve body to increase or decrease flow toward the piston for controlling actuation of the piston; and characterized by a stationary seal member disposed within the axial bore of the valve body and defining an axial seal bore and a radial aperture (237a,237b,237c) in fluid communication with the radial orifice (234a,234b,234c).
A method for feeding items of laundry to a mangle or the like, with two adjacent corner regions of a front edge, running transversely with respect to the feeding direction, of the respective item of laundry being clamped in two adjacent spreading clamps of a spreading device, the front edge being stretched out by the spreading clamps holding the adjacent corner regions being moved apart and, in the process, the item of laundry being spread out and the item of laundry, with an edge strip emerging from the stretched-out front edge, being accepted onto a depositing region of a depositing strip, which is movable in and counter to the feeding direction, wherein in order to accept the respective item of laundry from the spreading clamps, at least one portion of the depositing strip is moved at a distance under at least the edge strip of the item of laundry, and the depositing strip transfers the item of laundry to a feed conveyor transporting the latter to the mangle or the like, characterized in that, after the lowering of at least the depositing area of the depositing strip under the front edge and/or edge strip of the item of laundry, the distance is reduced at least to such an extent that the front edge and/or the edge strip rests on the depositing area of the depositing strip.
A laundry treating appliance comprising: a drum having an inner surface at least partially defining a treating chamber and an end with an opening to define an access opening to the treating chamber, wherein the drum rotates about a horizontal axis; and a lifter (50, 150) extending from the inner surface inwardly into the treating chamber and having an adjustable element (52, 152) rotatably mounted to a housing (51, 151) of the lifter (50, 150) for rotation about a rotation axis (57, 157) between first and second positions and having first and second profiles wherein when the adjustable element (52, 152) is in the first position, the first profile provides the lifter (50, 150) with a first effective height, and when the adjustable element (52, 152) is in the second position, the second profile provides the lifter (50, 150) with a second effective height, which is less than the first effective height,; wherein the adjustable element (52, 152) has an asymmetrical body; wherein the asymmetrical body comprises a maximum projection radially furthest from the rotation axis (57, 157), and in the first position the maximum projection defines the first effective height; characterized in that the lifter further comprises a lock fixing the adjustable element (52, 152) in at least one of the first and second positions. a drum having an inner surface at least partially defining a treating chamber and an end with an opening to define an access opening to the treating chamber, wherein the drum rotates about a horizontal axis; and a lifter (50, 150) extending from the inner surface inwardly into the treating chamber and having an adjustable element (52, 152) rotatably mounted to a housing (51, 151) of the lifter (50, 150) for rotation about a rotation axis (57, 157) between first and second positions and having first and second profiles wherein when the adjustable element (52, 152) is in the first position, the first profile provides the lifter (50, 150) with a first effective height, and when the adjustable element (52, 152) is in the second position, the second profile provides the lifter (50, 150) with a second effective height, which is less than the first effective height,; wherein the adjustable element (52, 152) has an asymmetrical body; wherein the asymmetrical body comprises a maximum projection radially furthest from the rotation axis (57, 157), and in the first position the maximum projection defines the first effective height; characterized in that the lifter further comprises a lock fixing the adjustable element (52, 152) in at least one of the first and second positions.
A combination drug comprising trifluridine and tipiracil hydrochloride in a molar ratio of 1:0.5 for use in treating a solid cancer, wherein one cycle of an administration schedule, in which, in a period of 14 days, the combination drug comprising trifluridine and tipiracil hydrochloride in a molar ratio of 1:0.5 is administered at a dose of 20 to 80 mg/m 2 /day of trifluridine on Days 1 to 5 and irinotecan hydrochloride hydrate is administered at a dose of 50 to 200 mg/m 2 /day on Day 1, is repeated once or twice or more times.
A cogeneration apparatus having a power generation unit equipped with a power generator adapted to be connected to an AC power feed line at a location between a commercial power network and an electric load, an internal combustion engine adapted to drive the generator, a hot water tank connected to the engine through a heat exchanger, a first pump provided at a first flow channel connecting the engine to the heat exchanger, and adapted to force an engine cooling water heated by the engine to flow to the heat exchanger and to force the engine cooling water cooled by the heat exchanger to flow to the engine through the first flow channel; a first temperature sensor adapted to produce an output indicative of a temperature of the engine cooling water heated by the engine; and a controller (24, S24, S100 - S118) adapted to control a flow rate of the first pump based on the detected temperature of the engine cooling water detected by the first temperature sensor, characterized in that: the controller is adapted to control the flow rate of the first pump based on the detected temperature of the engine cooling water detected by the first temperature sensor in such a manner that the flow rate is increased when the detected temperature of the engine cooling water is equal to or greater than a predetermined first temperature (T1U), while the flow rate is decreased when the detected temperature of the engine cooling water is equal to or smaller than a predetermined second temperature (T1L; S102 - S108). the controller is adapted to control the flow rate of the first pump based on the detected temperature of the engine cooling water detected by the first temperature sensor in such a manner that the flow rate is increased when the detected temperature of the engine cooling water is equal to or greater than a predetermined first temperature (T1U), while the flow rate is decreased when the detected temperature of the engine cooling water is equal to or smaller than a predetermined second temperature (T1L; S102 - S108).
A drawing roller arrangement having a first drawing roller and at least two pull rings (11; 12) or sections (11; 12) of a second drawing roller that are arranged offset in the axial direction of the first drawing roller and can each be engaged with the first drawing roller, characterized in that at least one catcher roller that can be engaged with the first drawing roller is provided inside the drawing roller arrangement, wherein the first drawing roller and the at least one catcher roller are arranged axially parallel to each other.
A plug-in connection for pipe lines or hose lines with a threaded-connection body exhibiting a borehole for relaying a medium flowing through the pipe line or hose line, and with a union nut screwed onto the threaded-connection body for the locked retention of a pipe piece inserted into the threaded-connection body by means of a securing ring that is supported against a retaining surface arranged on the pipe piece, and is located in a chamber bounded by the union nut, threaded-connection body and pipe piece, wherein a floor surface of the chamber allocated to the securing ring incorporates a stepped recess for holding the securing ring, comprised of a first step situated adjacent to the chamber and set up to accommodate the securing ring during insertion of the pipe piece, and a second step adjoining the latter that secures the securing ring so that it abuts against the retaining surface of the inserted pipe piece, wherein the chamber further incorporates a gasket that seals the inserted pipe piece against the threaded-connection body, and the pipe piece, by pressurizing the medium from its inserted position against the insertion direction relative to the threaded-connection body, can be transferred into its locked position, in which the securing ring lies in the second step of the recess, characterized in that a fixing ring is situated in the chamber between the securing ring and gasket, and is supported between the inserted pipe piece and a contact surface formed on the threaded-connection body and/or union nut and inclined with an axial progression in the direction of the securing ring relative to the longitudinal axis of the pipe piece, wherein the contact surface is given an inclination in which the fixing ring displaced into its fixed position by the pressurized gasket with the pipe piece in a locked position is clamped in a self-locking manner in the chamber, so that the pipe piece is fixed in place backlash-free.