mhurhangee/ep-ind-claims huggingface dataset:
A method of collecting a multi-screen service request of a user in a network device of a communication network, wherein user terminals (2a, 2b, 2c) belong to the same user, comprising the steps of: A. transmitting, to a handheld portable terminal of the user terminals (2a, 2b, 2c) of the user, an OMA interactive media document, the OMA interactive media document comprising multimedia service notification information and at least one set of media objects comprising a multi-screen service request command template, wherein the multi-screen service request command template comprises information related to a multi-screen service; and B. receiving a multi-screen service request command fed back from the user and determining a requirement of the user on the multi-screen service according to the multi-screen service request command. A. transmitting, to a handheld portable terminal of the user terminals (2a, 2b, 2c) of the user, an OMA interactive media document, the OMA interactive media document comprising multimedia service notification information and at least one set of media objects comprising a multi-screen service request command template, wherein the multi-screen service request command template comprises information related to a multi-screen service; and B. receiving a multi-screen service request command fed back from the user and determining a requirement of the user on the multi-screen service according to the multi-screen service request command.
A turbocharger assembly comprising: a shaft having a rotational axis wherein the shaft comprises a turbine wheel that comprises a hub portion; a bearing that comprises an outer race, an inner race operatively coupled to the shaft, and rolling elements disposed between the inner race and the outer race wherein an inner radius of the outer race and an outer radius of the inner race define a radial gap; and a lubricant slinger disposed axially between the inner race and the hub portion of the turbine wheel wherein the lubricant slinger comprises a surface that faces and slopes away from the radial gap and an annular groove characterized by the annular groove having a minimum radius that exceeds an inner radius of the outer race. a shaft having a rotational axis wherein the shaft comprises a turbine wheel that comprises a hub portion; a bearing that comprises an outer race, an inner race operatively coupled to the shaft, and rolling elements disposed between the inner race and the outer race wherein an inner radius of the outer race and an outer radius of the inner race define a radial gap; and a lubricant slinger disposed axially between the inner race and the hub portion of the turbine wheel wherein the lubricant slinger comprises a surface that faces and slopes away from the radial gap and an annular groove characterized by the annular groove having a minimum radius that exceeds an inner radius of the outer race.
A cockpit display system for deployment onboard an aircraft, the cockpit display system comprising: a cockpit monitor; and a controller coupled to the cockpit monitor and configured to: assess the current feasibility of landing at a first landing option, the first landing option being one of one or more airports in a range of the aircraft; assign the first landing option to one of a plurality of predetermined landing feasibility categories including at least a high feasibility landing category and a low feasibility landing category; and generate a vertical navigation display on the cockpit monitor; wherein the controller generates the vertical navigation display to include graphics indicative of the feasibility category assigned to the first landing option, an ideal trajectory profile for the first landing option, and a predicted trajectory profile of the aircraft; and wherein the controller further generates, on the vertical navigation display, one or more drag device deployment cues (84,86) indicating a drag device deployment scheme that can be employed to capture the ideal trajectory profile when the high feasibility category is assigned to the first landing option. a cockpit monitor; and a controller coupled to the cockpit monitor and configured to: assess the current feasibility of landing at a first landing option, the first landing option being one of one or more airports in a range of the aircraft; assign the first landing option to one of a plurality of predetermined landing feasibility categories including at least a high feasibility landing category and a low feasibility landing category; and generate a vertical navigation display on the cockpit monitor; assess the current feasibility of landing at a first landing option, the first landing option being one of one or more airports in a range of the aircraft; assign the first landing option to one of a plurality of predetermined landing feasibility categories including at least a high feasibility landing category and a low feasibility landing category; and generate a vertical navigation display on the cockpit monitor; wherein the controller generates the vertical navigation display to include graphics indicative of the feasibility category assigned to the first landing option, an ideal trajectory profile for the first landing option, and a predicted trajectory profile of the aircraft; and wherein the controller further generates, on the vertical navigation display, one or more drag device deployment cues (84,86) indicating a drag device deployment scheme that can be employed to capture the ideal trajectory profile when the high feasibility category is assigned to the first landing option.
A transmission processing method, applicable to a station, STA, in a Wireless Local Area Network, WLAN, system, the method comprising: receiving a pre-scheduling message that is transmitted by an access point, AP, through a first channel (S201, S401, S501), wherein the pre-scheduling message informs that the STA transmits uplink target data to the AP at a pre-scheduling moment by using a pre-scheduling frequency band, wherein the pre-scheduling frequency band is 6GHz allowed by a WLAN standard; transmitting, before the pre-scheduling moment is reached, the uplink target data and indication information to the AP by using any frequency band other than the pre-scheduling frequency band, the indication information being used for indicating cancellation of the pre-scheduling transmission, wherein the any frequency band other than the pre-scheduling frequency band is 2.4GHz or 5GHz allowed by the WLAN standard; transmitting the uplink target data by using the pre-scheduling frequency band in response to the pre-scheduling moment being reached, in response to a first acknowledgment message not being received from the AP; and canceling the pre-scheduling transmission in response to the first acknowledgment message being received from the AP. receiving a pre-scheduling message that is transmitted by an access point, AP, through a first channel (S201, S401, S501), wherein the pre-scheduling message informs that the STA transmits uplink target data to the AP at a pre-scheduling moment by using a pre-scheduling frequency band, wherein the pre-scheduling frequency band is 6GHz allowed by a WLAN standard; transmitting, before the pre-scheduling moment is reached, the uplink target data and indication information to the AP by using any frequency band other than the pre-scheduling frequency band, the indication information being used for indicating cancellation of the pre-scheduling transmission, wherein the any frequency band other than the pre-scheduling frequency band is 2.4GHz or 5GHz allowed by the WLAN standard; transmitting the uplink target data by using the pre-scheduling frequency band in response to the pre-scheduling moment being reached, in response to a first acknowledgment message not being received from the AP; and canceling the pre-scheduling transmission in response to the first acknowledgment message being received from the AP.
Vehicle spring, in particular a trailing arm or a parabolic spring, comprising an elongated spring body which is rolled from a profiled bar made of spring steel, wherein the spring body has a top side, a bottom side, two narrow sides (4, 5), a longitudinal axis, a transverse axis (z) which extends transversely to the longitudinal axis and which corresponds to the neutral fibre, an axis which extends from the bottom side to the top side at a right angle to the transverse axis (z), and at least one material recess which is provided at least in some regions along the length thereof, wherein the cross-sectional shape of the spring body changes along the length thereof, characterized in that at least one material recess is provided in at least one narrow side (4, 5) in the region of the transverse axis (z), in that the width of the material recess changes along the length of the material recess, and in that the depth of the material recess in the region of the transverse axis (z) is larger than the depth in the edge regions of the material recess pointing towards the bottom side and towards the top side.
An implantable medical device comprising - at least one voltage source, - at least one control unit, - at least one communication coil, and - an optical structure, with - at least one light-emitting diode (130, 140, 210), - at least one light detector, - at least one optical fibre, and wherein the optical structure contains at least one optical path, and wherein - the at least one LED (130, 140, 210) is electronically connected to the communication coil in such a way that the LED (130, 140, 210) emits light when an HF field is coupled into the communication coil, characterised in that - the optical structure is provided with at least one first and one second polarisation filter (220, 240), - the optical fibre is formed as a Faraday element (230', 230"), - the LED (130, 140, 210) is connected to a first side of the first polarisation filter, - a second side of the first polarisation filter is connected to a first end of the Faraday element (230', 230"), - a first side of the second polarisation filter is connected to a second end of the Faraday element (230', 230"), - a second side of the second polarisation filter is connected to the light detector, - the Faraday element (230', 230") has at least one bend and the Faraday element (230', 230") is divided by the bend into at least two portions, and - the Faraday element (230', 230") is fixedly anchored in a shaped part with a bend corresponding to the bend of the Faraday element (230', 230"). - at least one voltage source, - at least one control unit, - at least one communication coil, and - an optical structure, with - at least one light-emitting diode (130, 140, 210), - at least one light detector, - at least one optical fibre, and wherein the optical structure contains at least one optical path, and wherein - at least one light-emitting diode (130, 140, 210), - at least one light detector, - at least one optical fibre, and wherein the optical structure contains at least one optical path, and wherein - the at least one LED (130, 140, 210) is electronically connected to the communication coil in such a way that the LED (130, 140, 210) emits light when an HF field is coupled into the communication coil, - the optical structure is provided with at least one first and one second polarisation filter (220, 240), - the optical fibre is formed as a Faraday element (230', 230"), - the LED (130, 140, 210) is connected to a first side of the first polarisation filter, - a second side of the first polarisation filter is connected to a first end of the Faraday element (230', 230"), - a first side of the second polarisation filter is connected to a second end of the Faraday element (230', 230"), - a second side of the second polarisation filter is connected to the light detector, - the Faraday element (230', 230") has at least one bend and the Faraday element (230', 230") is divided by the bend into at least two portions, and - the Faraday element (230', 230") is fixedly anchored in a shaped part with a bend corresponding to the bend of the Faraday element (230', 230").
A multispecific anti-human PD-1-binding molecule that comprises a Variable Heavy Chain Domain and a Variable Light Chain Domain, wherein: said Variable Heavy Chain Domain comprises the amino acid sequence of SEQ ID NO:147, and said Variable Light Chain Domain comprises the amino acid sequence of SEQ ID NO:153.
Twist beam axle with two tubular side arms (2, 3), wherein a wheel carrier flange is welded at the end face to an end portion of one of the two tubular side arms (2, 3), and the side arm (2, 3) has an opening in a wall section, which opening is arranged and is intended for a screw connection means to be guided through the side arm (2, 3) and through a through-opening in the wheel carrier flange, characterized in that a reinforcing component is arranged on the upper side of the side arm (2, 3) between the end portion and the wheel carrier flange, wherein the reinforcing component is a sheet metal moulded part which has at least one recess, wherein the recess is configured and intended for a screw connection means to be guided through the sheet metal moulded part and through a further through-opening in the wheel carrier flange.
A positive electrode material for a lithium secondary battery, the material being a complex oxide whose overall composition is expressed by Li a Ni b M c N d L e O x, where M: one or two chemical elements selected from Mn and Co, N: one, two, or more chemical elements selected from the group consisting of Mg, Al, Ti, Cr, and Fe, L: one, two, or more chemical elements selected from the group consisting of B, C, Na, Si, P, S, K, Ca, and Ba, and where a/(b+c+d): 0.80 to 1.30, b/(b+c+d): 0.30 to 0.95, c/(b+c+d): 0.05 to 0.60, d/(b+c+d): 0.005 to 0.10, e/(b+c+d): 0.0005 to 0.010, b+c+d=1, and x: 1.5 to 2.5, wherein the amounts of L elements added to form the complex oxide are smaller than that of the added N elements, the difference between D 90 and D 10 based on the number of particles is 5.0 μm or more in the particle size distribution of the secondary particles of the complex oxide, and the material has a density of 3.40 to 4.50 g/cm 3 in the compacted state with a load of 95.5 MPa. M: one or two chemical elements selected from Mn and Co, N: one, two, or more chemical elements selected from the group consisting of Mg, Al, Ti, Cr, and Fe, L: one, two, or more chemical elements selected from the group consisting of B, C, Na, Si, P, S, K, Ca, and Ba, and where a/(b+c+d): 0.80 to 1.30, b/(b+c+d): 0.30 to 0.95, c/(b+c+d): 0.05 to 0.60, d/(b+c+d): 0.005 to 0.10, e/(b+c+d): 0.0005 to 0.010, b+c+d=1, and a/(b+c+d): 0.80 to 1.30, b/(b+c+d): 0.30 to 0.95, c/(b+c+d): 0.05 to 0.60, d/(b+c+d): 0.005 to 0.10, e/(b+c+d): 0.0005 to 0.010, x: 1.5 to 2.5,
An LNG fuel supply system for a ship, comprising: a fuel supply line connected from an LNG storing tank to an engine; a pump provided on the fuel supply line, and configured to compress LNG discharged from the LNG storing tank at a high pressure; and a heat exchanger provided on the fuel supply line between the engine and the pump, and configured to heat the LNG supplied from the pump, wherein the pump compresses the LNG at a higher pressure than a critical pressure to change the LNG in a liquid state to the LNG in a supercooled liquid state, wherein the heat exchanger heats the LNG to a temperature demanded by the engine higher than a critical temperature without exchanging heat between the LNG and a boil-off gas to change the LNG in a supercooled liquid state to the LNG in a supercritical state, wherein the pump and the heat exchanger control the LNG to detour a latent heat section, such that the LNG does not pass through a state in which gas and liquid coexist. a fuel supply line connected from an LNG storing tank to an engine; a pump provided on the fuel supply line, and configured to compress LNG discharged from the LNG storing tank at a high pressure; and a heat exchanger provided on the fuel supply line between the engine and the pump, and configured to heat the LNG supplied from the pump, wherein the pump compresses the LNG at a higher pressure than a critical pressure to change the LNG in a liquid state to the LNG in a supercooled liquid state, wherein the heat exchanger heats the LNG to a temperature demanded by the engine higher than a critical temperature without exchanging heat between the LNG and a boil-off gas to change the LNG in a supercooled liquid state to the LNG in a supercritical state, wherein the pump and the heat exchanger control the LNG to detour a latent heat section, such that the LNG does not pass through a state in which gas and liquid coexist.
A downhole tool for insertion into a casing having a lateral extending from a main casing, the main casing having a first diameter (D 1) and the lateral having a second diameter (D 2), the first diameter being larger than the second diameter, the downhole tool comprising: - a tool body having a first tool end and a second tool end and a tool width (w t), - a wireline connected with the first end of the tool body, and - a wireline guide device arranged at least partly around the wireline, wherein the wireline is movably arranged within the wireline guide device, characterised by that the guide device is releasably connected with the tool body. - a tool body having a first tool end and a second tool end and a tool width (w t), - a wireline connected with the first end of the tool body, and - a wireline guide device arranged at least partly around the wireline,
A multi-layer, chlorine-free film for ostomy and bowel management applications, comprising: a barrier layer having first and second sides, the barrier layer comprising a low melt polyamide resin having a melting temperature between 125°C and 135°C present in a concentration of 90 percent to 100 percent by weight (% wt.) of the barrier layer, the barrier layer being impermeable to malodor causing compounds; and first and second outer layers, each outer layer formed from an ethylene vinyl acetate or ethylene methyl acrylate copolymer and blends thereof, or polypropylene-based resins and blends thereof, wherein each outer layer is arranged on a respective side of the barrier layer. a barrier layer having first and second sides, the barrier layer comprising a low melt polyamide resin having a melting temperature between 125°C and 135°C present in a concentration of 90 percent to 100 percent by weight (% wt.) of the barrier layer, the barrier layer being impermeable to malodor causing compounds; and first and second outer layers, each outer layer formed from an ethylene vinyl acetate or ethylene methyl acrylate copolymer and blends thereof, or polypropylene-based resins and blends thereof, wherein each outer layer is arranged on a respective side of the barrier layer.
An apparatus for draining and rinsing containers filled with fluid, comprising - a receiving unit for receiving the container, wherein the receiving unit comprises a rotation device by means of which the container, after insertion into the receiving unit, is rotatable by a predetermined angle, - a removal unit which comprises a removal line, a coupling which is connected to the removal line and is intended for connection to a removal opening of the container, and a conveying device with which the fluid located in the container is conveyable out of the container, and - a rinsing unit which comprises a rinsing spike, a rinsing line connected to the rinsing spike, and a control device, wherein the rinsing spike is movable by means of the control device in such a manner that said rinsing spike, after draining of the container, automatically pierces a wall of the container and rinses out the container, wherein the container is rotatable by means of the rotation device (5, 6) about an axis which is oriented in a range of +/- 20° about the horizontal. - a receiving unit for receiving the container, wherein the receiving unit comprises a rotation device by means of which the container, after insertion into the receiving unit, is rotatable by a predetermined angle, - a removal unit which comprises a removal line, a coupling which is connected to the removal line and is intended for connection to a removal opening of the container, and a conveying device with which the fluid located in the container is conveyable out of the container, and - a rinsing unit which comprises a rinsing spike, a rinsing line connected to the rinsing spike, and a control device, wherein the rinsing spike is movable by means of the control device in such a manner that said rinsing spike, after draining of the container, automatically pierces a wall of the container and rinses out the container,
A method for pre-treating titanium components, in particular components consisting of an aluminium-containing titanium-based alloy, for subsequently coating the same, having the steps: a) etching of the component in an acidic and also fluoride-containing solution containing nitric acid (HNO 3); b) active pickling of the etched component in a solution containing at least sodium nitrate (NaNO 3) and tetrafluoroboric acid (HBF 4); c) activation of the actively pickled component in an acid-containing bath or an acidic nickel-containing bath, characterised in that the solution for the active pickling contains 20-50 g/l sodium nitrate (NaNO 3), 50-70 g/l tetrafluoroboric acid (HBF 4) and also either 15-35 g/l sodium hydroxide solution (NaOH) and 5-50 g/l sodium tetrafluoroborate (NaBF 4) or 25-50 g/l sodium (Na +) and 45-100 g/l fluorine (F -). a) etching of the component in an acidic and also fluoride-containing solution containing nitric acid (HNO 3); b) active pickling of the etched component in a solution containing at least sodium nitrate (NaNO 3) and tetrafluoroboric acid (HBF 4); c) activation of the actively pickled component in an acid-containing bath or an acidic nickel-containing bath, characterised in that the solution for the active pickling contains 20-50 g/l sodium nitrate (NaNO 3), 50-70 g/l tetrafluoroboric acid (HBF 4) and also either 15-35 g/l sodium hydroxide solution (NaOH) and 5-50 g/l sodium tetrafluoroborate (NaBF 4) or 25-50 g/l sodium (Na +) and 45-100 g/l fluorine (F -).
A cable arrangement for feeding power and signals to downhole equipment, such as an electrically submersible pump, within an oil or gas well, comprising an upper suspension element, a lower connector, a docking station (11, 11') for the downhole equipment coupled to said connector, and a cable (8, 8a), comprising lines (18, 19, 20) for power and signal, extending between and being coupled to said upper suspension element and said lower connector, said docking station (11, 11' being adapted for attachment to the inner surface of a production tubing, a narrow gap being formed between said production tubing and said downhole equipment, characterised in that said cable (8, 8a) is shaped to fit inside said gap by having a first dimension in the radial direction of said gap, which is smaller than said gap and a second dimension in the tangential direction of said gap, which is substantially larger than said first dimension.