mhurhangee/ep-ind-claims huggingface dataset:
A method in a communication system comprising a first core network node, CN, a second CN, a base station apparatus (104, 114) serving a user equipment, UE,, and a packet data network gateway, PGW, associated with the UE, characterized in that the method being performed by the first CN and comprising: the first CN receiving a tunneling endpoint identifier, TEID, information element from the second CN, the TEID information element comprises a plurality of fields, wherein one of said plurality of fields includes a Public Land Mobile Network, PLMN, identifier of the PGW; and the first CN forwarding the received PLMN identifier to the base station apparatus (104, 114). the first CN receiving a tunneling endpoint identifier, TEID, information element from the second CN, the TEID information element comprises a plurality of fields, wherein one of said plurality of fields includes a Public Land Mobile Network, PLMN, identifier of the PGW; and the first CN forwarding the received PLMN identifier to the base station apparatus (104, 114).
A method for wireless communication, comprising: generating a packet comprising a multiple-user multiple-input multiple-output, MU-MIMO, portion, an orthogonal frequency division multiple access, OFDMA, portion and a signal, SIG, field, wherein the SIG field indicates a frequency bandwidth location for the MU-MIMO portion within the packet transmission frequency bandwidth; and transmitting the packet over a packet transmission frequency bandwidth. generating a packet comprising a multiple-user multiple-input multiple-output, MU-MIMO, portion, an orthogonal frequency division multiple access, OFDMA, portion and a signal, SIG, field, wherein the SIG field indicates a frequency bandwidth location for the MU-MIMO portion within the packet transmission frequency bandwidth; and transmitting the packet over a packet transmission frequency bandwidth.
Aluminium casting alloy, characterized in that said alloy is consisting of: 11.5-12% by weight of silicon, 0.3-1% by weight of iron, 0.05-0.4% by weight of copper, less than 0.75% by weight of manganese, less than 0.35% by weight of zinc, 0.45-0.8% by weight of magnesium, less than 0.3% by weight of titanium, 0.05-0.2% by weight of chrome, less than 0.3% by weight of nickel, less than 0.05% by weight of strontium, less than 0.05% by weight of lead, less than 0.05% by weight of tin, and aluminum as the remainder. 11.5-12% by weight of silicon, 0.3-1% by weight of iron, 0.05-0.4% by weight of copper, less than 0.75% by weight of manganese, less than 0.35% by weight of zinc, 0.45-0.8% by weight of magnesium, less than 0.3% by weight of titanium, 0.05-0.2% by weight of chrome, less than 0.3% by weight of nickel, less than 0.05% by weight of strontium, less than 0.05% by weight of lead, less than 0.05% by weight of tin, and aluminum as the remainder.
A server-implemented method for tracking an asset in an indoor facility, comprising: receiving, from a first mobile device connected to the server via a wireless communication network, an asset tracking tag collision report, the asset tracking tag collision report including a tag identifier of an asset tracking tag associated with the asset, wherein the tag identifier is transmitted to the first mobile device in a wireless signal broadcast by the asset tracking tag when the asset tracking tag determines that the asset has moved; determining a new location of the asset based on the received asset tracking tag collision report; updating an asset location database to indicate the new location of the asset; and in response to determining the new location of the asset, transmitting an instruction message to a plurality of mobile devices within the facility instructing a next of the plurality of mobile devices to detect the wireless signal from the asset tracking tag to direct the asset tracking tag to cease broadcasting the wireless signal. receiving, from a first mobile device connected to the server via a wireless communication network, an asset tracking tag collision report, the asset tracking tag collision report including a tag identifier of an asset tracking tag associated with the asset, wherein the tag identifier is transmitted to the first mobile device in a wireless signal broadcast by the asset tracking tag when the asset tracking tag determines that the asset has moved; determining a new location of the asset based on the received asset tracking tag collision report; updating an asset location database to indicate the new location of the asset; and in response to determining the new location of the asset, transmitting an instruction message to a plurality of mobile devices within the facility instructing a next of the plurality of mobile devices to detect the wireless signal from the asset tracking tag to direct the asset tracking tag to cease broadcasting the wireless signal.
A method for wireless communication, comprising: receiving a semi-persistent assignment for an acknowledgement, ACK, resource for a user equipment, UE, and for transmissions of data on the downlink, DL, with a scheduling message, the semi-persistent assignment being valid for multiple transmissions of data and wherein the scheduling message is also used to send scheduling information for a single transmission of data with dynamic scheduling which is re-used to carry the ACK resource assignment for semi-persistent scheduling; determining that the scheduling message is for semi-persistent scheduling; obtaining an assignment of the ACK resource from the semi-persistent assignment, the ACK resource being assigned to the UE for the multiple transmissions of data; receiving a transmission of data sent in accordance with the semi-persistent assignment; determining ACK information for the transmission of data; and sending the ACK information with the ACK resource. receiving a semi-persistent assignment for an acknowledgement, ACK, resource for a user equipment, UE, and for transmissions of data on the downlink, DL, with a scheduling message, the semi-persistent assignment being valid for multiple transmissions of data and wherein the scheduling message is also used to send scheduling information for a single transmission of data with dynamic scheduling which is re-used to carry the ACK resource assignment for semi-persistent scheduling; determining that the scheduling message is for semi-persistent scheduling; obtaining an assignment of the ACK resource from the semi-persistent assignment, the ACK resource being assigned to the UE for the multiple transmissions of data; receiving a transmission of data sent in accordance with the semi-persistent assignment; determining ACK information for the transmission of data; and sending the ACK information with the ACK resource.
A watercraft comprising: a chassis; a drive means; a hydrofoil (4,40); and a drive transfer arm, wherein the drive means is operatively connected to a first end of the drive transfer arm, and the hydrofoil (4, 40) is pivotably connected to a second end of the drive transfer arm, the watercraft configured such that operation of the drive means causes the hydrofoil to oscillate, to provide thrust, characterised in that: the hydrofoil is pivotably connected to the second end of the drive transfer arm with an adjustable connection mechanism, wherein the distance between the leading edge of the hydrofoil and the rotational axis of the pivoting connection point to the drive transfer arm is adjustable. a chassis; a drive means; a hydrofoil (4,40); and a drive transfer arm, wherein the drive means is operatively connected to a first end of the drive transfer arm, and the hydrofoil (4, 40) is pivotably connected to a second end of the drive transfer arm, the watercraft configured such that operation of the drive means causes the hydrofoil to oscillate, to provide thrust, characterised in that: the hydrofoil is pivotably connected to the second end of the drive transfer arm with an adjustable connection mechanism, wherein the distance between the leading edge of the hydrofoil and the rotational axis of the pivoting connection point to the drive transfer arm is adjustable.
Process for treating an aqueous effluent comprising solid particles, comprising: (a) adding at least one anionic modified natural polymer chosen aming anionic guar gum to the effluent, then (b) adding at least one cationic modified natural polymer chosen among cationic starch or cationic dextran, wherein the effluent is: - effluent from the mining extraction of coal mines, diamond mines, phosphate mines, metal mines such as aluminium, platinum, iron, gold, copper, silver; or - effluent from the mining extraction of bituminous sand or oil sand; or - effluent comprising 5 to 70 % by weight, preferably 20 to 50 % by weight, more preferably 30 to 40 % by weight of solid particles; or - effluent comprising sand, clay and water; or - effluent comprising sand, clay, water and residual bitumen; or - effluent comprising fresh tailings; or - effluent comprising fine tailings. (a) adding at least one anionic modified natural polymer chosen aming anionic guar gum to the effluent, then (b) adding at least one cationic modified natural polymer chosen among cationic starch or cationic dextran, - effluent from the mining extraction of coal mines, diamond mines, phosphate mines, metal mines such as aluminium, platinum, iron, gold, copper, silver; or - effluent from the mining extraction of bituminous sand or oil sand; or - effluent comprising 5 to 70 % by weight, preferably 20 to 50 % by weight, more preferably 30 to 40 % by weight of solid particles; or - effluent comprising sand, clay and water; or - effluent comprising sand, clay, water and residual bitumen; or - effluent comprising fresh tailings; or - effluent comprising fine tailings.
Water-discharge assembly, intended to be mounted on a sanitary appliance to allow the flow of water from said appliance, including: - a tubular part, one end of which has a collar and a discharge orifice intended to open out into said appliance with a view to collecting the water to be discharged; - a nut intended to cooperate with the tubular part in order to connect the discharge assembly to the sanitary appliance; - a drainage-outlet body intended to communicate with said tubular part; - at least one water-discharge pipe extending from the drainage-outlet body; the nut has means for supporting the drainage-outlet body, and the drainage-outlet body comprises a zone for receiving a bottom part of the nut, and the nut has a screwing axis, characterised in that said bottom zone extends around the axis, having a cone portion or a sphere portion able to cooperate with the reception zone to allow a pivoting of the drainage-outlet body with respect to the nut about at least one pivot axis perpendicular to the screwing axis and perpendicular to the discharge pipe. - a tubular part, one end of which has a collar and a discharge orifice intended to open out into said appliance with a view to collecting the water to be discharged; - a nut intended to cooperate with the tubular part in order to connect the discharge assembly to the sanitary appliance; - a drainage-outlet body intended to communicate with said tubular part; - at least one water-discharge pipe extending from the drainage-outlet body;
A displacer machine according to the spiral principle, in particular a scroll compressor or scroll expander, with a high-pressure chamber, a low-pressure chamber, and an orbiting displacer spiral, which engages into a counterspiral in such a way as to form chambers between the displacer spiral and the counterspiral, so as to accommodate a working medium, specifically CO 2 or R134a or R1234yf or butane or ethanol or cyclopentane, wherein a counterpressure chamber is formed between the low-pressure chamber and the displacer spiral, wherein a pressure regulating device fluidically connected with the counterpressure chamber sets a pressure difference between the counterpressure chamber and the low-pressure chamber by means of a setpoint preset by a computing unit, characterized in that the pressure regulating device comprises an electrically actuatable regulating valve and a throttle, and that the electrically actuatable regulating valve comprises a displaceable valve needle that is electromagnetically actuatable. the pressure regulating device comprises an electrically actuatable regulating valve and a throttle, and that the electrically actuatable regulating valve comprises a displaceable valve needle that is electromagnetically actuatable.
A surgical system comprising: a tomographic image acquisition unit configured to acquire a tomographic image that is a cross-sectional image taken in a direction substantially parallel to an eye axis direction of an eye that is a surgical target; an image recognition unit configured to recognise, as a predetermined part of the eye in the tomographic image on the basis of the tomographic image, a positional relationship between an optic disc and a fovea; and a posture calculation unit configured to calculate, as a posture of the eye on the basis of a result of recognition of said positional relationship, a turning angle of the eye around the eye axis direction serving as a rotation axis. a tomographic image acquisition unit configured to acquire a tomographic image that is a cross-sectional image taken in a direction substantially parallel to an eye axis direction of an eye that is a surgical target; an image recognition unit configured to recognise, as a predetermined part of the eye in the tomographic image on the basis of the tomographic image, a positional relationship between an optic disc and a fovea; and a posture calculation unit configured to calculate, as a posture of the eye on the basis of a result of recognition of said positional relationship, a turning angle of the eye around the eye axis direction serving as a rotation axis.
A fluid ejection die (10, 50) comprising: an array of nozzles (12, 52), each respective nozzle (12, 52) of the array including a respective fluid ejector (16, 54) to eject fluid; at least one die sensor (14, 56) to sense a die characteristic associated with the fluid ejection die (10, 50); signal control logic to suppress transmission of a first set of signals for the fluid ejection die during sensing of die characteristics with the at least one die sensor (14, 56); characterised in that the first set of signals include array ejection data corresponding to each respective nozzle of the array and an ejection clock; an array shift register coupled to the array of nozzles, the array shift register to receive the first set of signals and to generate ejection pulses for the respective fluid ejectors of the array of nozzles based on the first set of signals; and ejection data logic to generate the array ejection data, wherein the signal control logic comprises: a control latch coupled to the ejection data logic to detect transmission of the array ejection data, and a control gate coupled between the control latch and the array shift register to pass the ejection clock to the array shift register responsive to detection of transmission of the array ejection data. an array of nozzles (12, 52), each respective nozzle (12, 52) of the array including a respective fluid ejector (16, 54) to eject fluid; at least one die sensor (14, 56) to sense a die characteristic associated with the fluid ejection die (10, 50); signal control logic to suppress transmission of a first set of signals for the fluid ejection die during sensing of die characteristics with the at least one die sensor (14, 56); characterised in that the first set of signals include array ejection data corresponding to each respective nozzle of the array and an ejection clock; an array shift register coupled to the array of nozzles, the array shift register to receive the first set of signals and to generate ejection pulses for the respective fluid ejectors of the array of nozzles based on the first set of signals; and ejection data logic to generate the array ejection data, wherein the signal control logic comprises: a control latch coupled to the ejection data logic to detect transmission of the array ejection data, and a control gate coupled between the control latch and the array shift register to pass the ejection clock to the array shift register responsive to detection of transmission of the array ejection data. a control latch coupled to the ejection data logic to detect transmission of the array ejection data, and a control gate coupled between the control latch and the array shift register to pass the ejection clock to the array shift register responsive to detection of transmission of the array ejection data.
A heating assembly for heating an aerosol-forming substrate, the heating assembly comprising: a heater comprising an electrically resistive heating element; and a heater mount coupled to the heater; wherein the heating element comprises a first portion and a second portion configured such that, when an electrical current is passed through the heating element the first portion is heated to a higher temperature than the second portion as a result of the electrical current; and wherein the heater mount surrounds the second portion of the heating element and is formed from a moulded polymeric material. a heater comprising an electrically resistive heating element; and a heater mount coupled to the heater; wherein the heating element comprises a first portion and a second portion configured such that, when an electrical current is passed through the heating element the first portion is heated to a higher temperature than the second portion as a result of the electrical current; and wherein the heater mount surrounds the second portion of the heating element and is formed from a moulded polymeric material.
A method of a user equipment, UE, in a wireless communication network, the method comprising: receiving, from an eNodeB, eNB, a first message for device to device, D2D, discovery, the first message comprising information regarding a cell identifier, ID, for a synchronization signal generation; and transmitting, to another UE, a synchronization signal in a frame based on the ID; and transmitting, to the another UE, a configuration message indicating a frame number of the frame. receiving, from an eNodeB, eNB, a first message for device to device, D2D, discovery, the first message comprising information regarding a cell identifier, ID, for a synchronization signal generation; and transmitting, to another UE, a synchronization signal in a frame based on the ID; and transmitting, to the another UE, a configuration message indicating a frame number of the frame.
A wheel loader comprising a front working device including a lift arm rotatable in a vertical direction, the front working device being provided at a front of a vehicle body, the wheel loader being configured for traveling by transmitting a drive force of an engine to wheels via a torque converter, and comprising: a traveling state sensor configured to detect a traveling state of the vehicle body; a motion sensor configured to detect that the lift arm is in a lifting motion; a speed stage switch configured to select one of a plurality of speed stages (S1 - S4) to which different maximum vehicle speeds are set, and a controller (5, 5A) configured to control the engine, wherein the controller (5, 5A) is configured to determine whether a specific condition for specifying an operation of the lift arm in an upward direction during forward travel of the vehicle body is satisfied or not, and is configured to limit a vehicle speed by reducing a maximum rotational speed of the engine in a case of satisfying the specific condition, wherein the specific condition is that the traveling state sensor detects forward traveling of the vehicle body and the motion sensor detects a lifting motion of the lift arm and the speed stage switch is switched to select a low speed stage. a traveling state sensor configured to detect a traveling state of the vehicle body; a motion sensor configured to detect that the lift arm is in a lifting motion; a speed stage switch configured to select one of a plurality of speed stages (S1 - S4) to which different maximum vehicle speeds are set, and a controller (5, 5A) configured to control the engine, wherein the controller (5, 5A) is configured to determine whether a specific condition for specifying an operation of the lift arm in an upward direction during forward travel of the vehicle body is satisfied or not, and is configured to limit a vehicle speed by reducing a maximum rotational speed of the engine in a case of satisfying the specific condition, wherein the specific condition is that the traveling state sensor detects forward traveling of the vehicle body and the motion sensor detects a lifting motion of the lift arm and the speed stage switch is switched to select a low speed stage.
A fuel assembly of a pressurized water reactor, comprising: a plurality of first fuel rods (41, 81), each first fuel rod containing burnable poison, and a plurality of second fuel rods (42, 82), each second fuel rod containing a total weight of burnable poison lower than that of the first fuel rods (41, 81), wherein a content rate of the burnable poison increases from both end portions toward a center portion in an axial direction of each of the first fuel rods (41, 81) and the second fuel rods (42, 82), wherein the burnable poison is gadolinium, wherein a high-gadolinium area (61, 63, 88, 93) is provided at the center portion of each of the first fuel rods (41, 81) and the second fuel rods (42, 82), the high-gadolinium area containing a concentration of gadolinium in a range of 4 to 12 wt%, and wherein the plurality of second fuel rods (42, 82) is disposed closer to an outer side of the fuel assembly in an orthogonal plane perpendicular to an axial direction as compared to the plurality of first fuel rods (41, 81). a plurality of first fuel rods (41, 81), each first fuel rod containing burnable poison, and a plurality of second fuel rods (42, 82), each second fuel rod containing a total weight of burnable poison lower than that of the first fuel rods (41, 81), wherein a content rate of the burnable poison increases from both end portions toward a center portion in an axial direction of each of the first fuel rods (41, 81) and the second fuel rods (42, 82), wherein the burnable poison is gadolinium, wherein a high-gadolinium area (61, 63, 88, 93) is provided at the center portion of each of the first fuel rods (41, 81) and the second fuel rods (42, 82), the high-gadolinium area containing a concentration of gadolinium in a range of 4 to 12 wt%, and wherein the plurality of second fuel rods (42, 82) is disposed closer to an outer side of the fuel assembly in an orthogonal plane perpendicular to an axial direction as compared to the plurality of first fuel rods (41, 81).
A method for controlling a light intensity of an outdoor light in a first spatial direction, the method being performed by an electronic control device, the method comprising: at a first time, determining that precipitation starts and, in response to the precipitation starting, controlling the light intensity such that the light intensity is reduced from a first light intensity value at the first time to a second light intensity value at a second time with a first delay; and characterized in that the method further comprises: determining a first ambient temperature; and determining a value of the first delay as a function of the first ambient temperature. at a first time, determining that precipitation starts and, in response to the precipitation starting, controlling the light intensity such that the light intensity is reduced from a first light intensity value at the first time to a second light intensity value at a second time with a first delay; and characterized in that the method further comprises: determining a first ambient temperature; and determining a value of the first delay as a function of the first ambient temperature. determining a first ambient temperature; and determining a value of the first delay as a function of the first ambient temperature.