mhurhangee/patent-ind-claim-en huggingface dataset:
A method of adjusting a planned pilot workload before a planned flight, the method comprising: tracking over a time period, using at least one sensor , inputs by a pilot indicative of a pilot workload, or image sensor data or a biometric parameter indicative of a pilot stress level, during a plurality of flights of an aircraft prior to the planned flight, the plurality of flights having the same or similar flight paths; correlating , using a controller that is operatively connected to the at least one sensor , the inputs by a pilot indicative of a pilot workload, or the image sensor data or the biometric parameter indicative of a pilot stress level, with one or more time periods for analysis; identifying, based on the analysis, using a processor that is operatively connected to a controller , which of the one or more time periods comprise pilot workload or stress level above a threshold value indicative of a pilot experiencing high workload volumes or high stress levels; and adjusting , using a controller that is operatively connected to the flight control computer , the pilot workload during the time periods that comprise a pilot workload or stress level above the threshold value of pre-planned pilot workload of the planned flight. tracking over a time period, using at least one sensor , inputs by a pilot indicative of a pilot workload, or image sensor data or a biometric parameter indicative of a pilot stress level, during a plurality of flights of an aircraft prior to the planned flight, the plurality of flights having the same or similar flight paths; correlating , using a controller that is operatively connected to the at least one sensor , the inputs by a pilot indicative of a pilot workload, or the image sensor data or the biometric parameter indicative of a pilot stress level, with one or more time periods for analysis; identifying, based on the analysis, using a processor that is operatively connected to a controller , which of the one or more time periods comprise pilot workload or stress level above a threshold value indicative of a pilot experiencing high workload volumes or high stress levels; and adjusting , using a controller that is operatively connected to the flight control computer , the pilot workload during the time periods that comprise a pilot workload or stress level above the threshold value of pre-planned pilot workload of the planned flight.
A work machine comprising: a work device installed on a machine main body ; a plurality of actuators configured to drive the machine main body and the work device ; a posture sensor configured to sense postural data about the machine main body and the work device ; and a controller configured to compute a distance between a preset intrusion prohibition region , and the work device and the machine main body on a basis of positional data about the intrusion prohibition region and the postural data, and configured to execute, when the distance is smaller than proximity specified by a degree-of-proximity threshold set as a threshold for the distance, an operating area limiting control to decelerate at least one of the plurality of actuators such that an intrusion of the work device and the machine main body into the intrusion prohibition region is prevented, characterized in that the work machine further comprises a storage device , the controller is configured to store historical data about the distance in the storage device by storing computed distances in time series in the storage device , the controller is configured to compute a dispersion of the distance on a basis of the historical data about the distance stored in the storage device , and the controller is configured to lower the degree-of-proximity threshold as the dispersion of the distance decreases. a work device installed on a machine main body ; a plurality of actuators configured to drive the machine main body and the work device ; a posture sensor configured to sense postural data about the machine main body and the work device ; and a controller configured to compute a distance between a preset intrusion prohibition region , and the work device and the machine main body on a basis of positional data about the intrusion prohibition region and the postural data, and configured to execute, when the distance is smaller than proximity specified by a degree-of-proximity threshold set as a threshold for the distance, an operating area limiting control to decelerate at least one of the plurality of actuators such that an intrusion of the work device and the machine main body into the intrusion prohibition region is prevented, characterized in that the work machine further comprises a storage device , the controller is configured to store historical data about the distance in the storage device by storing computed distances in time series in the storage device , the controller is configured to compute a dispersion of the distance on a basis of the historical data about the distance stored in the storage device , and the controller is configured to lower the degree-of-proximity threshold as the dispersion of the distance decreases.
A method performed by a user equipment, UE , in a wireless communication system, the method comprising: when a radio link failure happens because beam failure recovery by the UE has failed (S2400), performing (S2402) a radio resource control, RRC, connection establishment procedure or an RRC connection re-establishment procedure with a gNB; receiving, (S2406), from a central unit, CU, of the gNB via a distributed unit, DU, of the gNB, a UE Information Request message; transmitting, (S2408), to the CU of the gNB via the DU of the gNB, a UE Information Response message including i) radio link failure, RLF, related information and ii) random access channel, RACH, related information, wherein the RLF related information informs that an RLF caused by a failure of a beam failure recovery occurs for the UE and includes a cell identity, ID, of a cell at which the beam failure recovery for the UE has failed; and wherein the RACH related information includes i) information related to variables used for a random access procedure performed by the UE when the beam failure recovery has failed, and ii) information related to a preamble transmission counter; and receiving, from the DU of the gNB, a RACH configuration for the cell. when a radio link failure happens because beam failure recovery by the UE has failed (S2400), performing (S2402) a radio resource control, RRC, connection establishment procedure or an RRC connection re-establishment procedure with a gNB; receiving, (S2406), from a central unit, CU, of the gNB via a distributed unit, DU, of the gNB, a UE Information Request message; transmitting, (S2408), to the CU of the gNB via the DU of the gNB, a UE Information Response message including i) radio link failure, RLF, related information and ii) random access channel, RACH, related information, wherein the RLF related information informs that an RLF caused by a failure of a beam failure recovery occurs for the UE and includes a cell identity, ID, of a cell at which the beam failure recovery for the UE has failed; and wherein the RACH related information includes i) information related to variables used for a random access procedure performed by the UE when the beam failure recovery has failed, and ii) information related to a preamble transmission counter; and receiving, from the DU of the gNB, a RACH configuration for the cell.
A method of mixing a fluid, comprising: contacting in a vessel: a first fluid, wherein the first fluid comprises a saturated or supersaturated aqueous solution, wherein the saturated or supersaturated aqueous solution is selected from the group consisting of a salt solution, a sugar solution, a urea solution, a glycerol solution, a methylsulfonylmethane solution, a cesium formate solution, and combinations thereof and a second fluid comprising a mixture of two or more materials, wherein said second fluid comprises crude oil extracted from a wellbore during a wireline formation testing, measuring while drilling, logging while drilling, or drill stem testing operation; and moving the vessel to cause the first fluid to mix the second fluid, wherein the first fluid has a density greater than the density of the second fluid and wherein the first fluid has a density of greater than 999 kg/m 3 . contacting in a vessel: a first fluid, wherein the first fluid comprises a saturated or supersaturated aqueous solution, wherein the saturated or supersaturated aqueous solution is selected from the group consisting of a salt solution, a sugar solution, a urea solution, a glycerol solution, a methylsulfonylmethane solution, a cesium formate solution, and combinations thereof and a second fluid comprising a mixture of two or more materials, wherein said second fluid comprises crude oil extracted from a wellbore during a wireline formation testing, measuring while drilling, logging while drilling, or drill stem testing operation; and a first fluid, wherein the first fluid comprises a saturated or supersaturated aqueous solution, wherein the saturated or supersaturated aqueous solution is selected from the group consisting of a salt solution, a sugar solution, a urea solution, a glycerol solution, a methylsulfonylmethane solution, a cesium formate solution, and combinations thereof and a second fluid comprising a mixture of two or more materials, wherein said second fluid comprises crude oil extracted from a wellbore during a wireline formation testing, measuring while drilling, logging while drilling, or drill stem testing operation; and moving the vessel to cause the first fluid to mix the second fluid, wherein the first fluid has a density greater than the density of the second fluid and wherein the first fluid has a density of greater than 999 kg/m 3 .
Bottle comprising a tubular body , equipped with a first free end (A) from which, formed in one piece, a neck extends, the neck defining a mouth of the bottle , the neck having connection means with a hermetic closure of the bottle, a second free end (B) of the tubular body defining a support surface of the bottle , configured so that when the bottle is placed on a horizontal plane through said support surface, the bottle assumes a substantially vertical position, wherein the second free end (B) has an axial channel which divides the support surface into two semi-supporting surfaces substantially symmetrical with respect to said axial channel , the axial channel defining a preferential folding line configured to flatten the second free end (B) and favor a winding of the bottle on itself, starting from said end free (B), in order to completely squeeze a fluid substance that can be housed in the bottle, characterized in that , in a section taken along said axial channel , a bottom wall of the container has a concave conformation towards the inside of the bottle, defined by two segments (E, F) substantially rectilinear that join, respectively angled, at the center (D), the segments (E, F) forming an angle (α) comprised between 170 and 160°, preferably of 164°.
A method of measuring rinse properties of a topical personal care composition from a hair surface, comprising the steps of: i) providing a treatment composition comprising a UV fluorescent dye; ii) taking a first image of the surface; iii) applying the composition of (i) to the surface; iv) taking a second image of the surface; v) rinsing the surface with water; vi) taking a third image of the surface; vii) analysing the images to quantify the amount of treatment composition remaining on the surface after step (v). i) providing a treatment composition comprising a UV fluorescent dye; ii) taking a first image of the surface; iii) applying the composition of (i) to the surface; iv) taking a second image of the surface; v) rinsing the surface with water; vi) taking a third image of the surface; vii) analysing the images to quantify the amount of treatment composition remaining on the surface after step (v).
A sheet tray comprising a tray section including a placement surface on which a sheet is to be placed, wherein a rear end portion of the tray section capable of supporting a sheet at an upstream side of the sheet conveyance direction extends in a width direction of the sheet perpendicular to the sheet conveyance direction, and both ends of the rear end portion in the width direction of the sheet are raised upward to the placement surface relative to a middle of the rear end portion in the width direction of the sheet, characterized in that a lift plate formed as a forward end portion of the tray section is capable of supporting a downstream side of the sheet in the direction of conveyance of the sheet, both ends of the lift plate in the width direction of the sheet are raised upward to the placement surface relative to the middle of the lift plate in the width direction of the sheet, both ends of the lift plate are end guides , and the end guides and the rear end portion of the tray section give to the sheet placed on the tray section a deflection shape extending along the direction of conveyance of the sheet and curved in the width direction of the sheet, and characterised in that each of the end guides is formed of a right triangle as viewed from above having a right-angled vertex at the corner of the lift plate in the width direction of the sheet, two sides formed of the end edge of the lift plate and a side edge of the lift plate along the direction of conveyance of the sheet, and the hypotenuse formed as a bending line extending on the sheet placement surface. a rear end portion of the tray section capable of supporting a sheet at an upstream side of the sheet conveyance direction extends in a width direction of the sheet perpendicular to the sheet conveyance direction, and both ends of the rear end portion in the width direction of the sheet are raised upward to the placement surface relative to a middle of the rear end portion in the width direction of the sheet, characterized in that a lift plate formed as a forward end portion of the tray section is capable of supporting a downstream side of the sheet in the direction of conveyance of the sheet, both ends of the lift plate in the width direction of the sheet are raised upward to the placement surface relative to the middle of the lift plate in the width direction of the sheet, both ends of the lift plate are end guides , and the end guides and the rear end portion of the tray section give to the sheet placed on the tray section a deflection shape extending along the direction of conveyance of the sheet and curved in the width direction of the sheet, and characterised in that each of the end guides is formed of a right triangle as viewed from above having a right-angled vertex at the corner of the lift plate in the width direction of the sheet, two sides formed of the end edge of the lift plate and a side edge of the lift plate along the direction of conveyance of the sheet, and the hypotenuse formed as a bending line extending on the sheet placement surface.
A method for controlling a wind energy farm, the wind energy farm comprising two or more wind turbines , the method comprising the steps of: - determining a wake state of the wind energy farm, including determining wake chains defining wake relationships among the wind turbines of the wind farm under the current wind conditions, - for at least one of the wind turbines of the wind energy farm, estimating a lifetime usage, based on an accumulated load measure for the wind turbine , and in the case that the estimated lifetime usage is below a predefined lifetime usage limit, operating the wind turbine in an overrated state, - monitoring wake effects at each of the wind turbines , - in the case that a downstream wind turbine , with respect to the wind turbine operating in an overrated state, detects wake effects above a predefined wake threshold level, generating a control signal for the wind turbine operating in an overrated state and having an upstream wake relationship with the downstream wind turbine , the control signal requesting the wind turbine operating in an overrated state to discontinue operating in an overrated state, thereby causing a decrease in generated wake, and - controlling the wind turbines of the wind energy farm in accordance with the generated control signals. - determining a wake state of the wind energy farm, including determining wake chains defining wake relationships among the wind turbines of the wind farm under the current wind conditions, - for at least one of the wind turbines of the wind energy farm, estimating a lifetime usage, based on an accumulated load measure for the wind turbine , and in the case that the estimated lifetime usage is below a predefined lifetime usage limit, operating the wind turbine in an overrated state, - monitoring wake effects at each of the wind turbines , - in the case that a downstream wind turbine , with respect to the wind turbine operating in an overrated state, detects wake effects above a predefined wake threshold level, generating a control signal for the wind turbine operating in an overrated state and having an upstream wake relationship with the downstream wind turbine , the control signal requesting the wind turbine operating in an overrated state to discontinue operating in an overrated state, thereby causing a decrease in generated wake, and - controlling the wind turbines of the wind energy farm in accordance with the generated control signals.
A method comprising: transmitting , at a first time and from a wellhead, a radar waveform into a tubing disposed in a wellbore positioned in a reservoir , wherein the radar waveform is a TM01 mode waveform, the tubing comprising a fluid, and a surface of the wellbore comprising the wellhead; receiving , at a second time and at the wellhead, a reflected waveform generated by reflecting the transmitted radar waveform on a fluid surface of the fluid; determining a time difference between the first time and the second time; and determining a fluid level of the fluid based on the time difference and on a transmission speed of the radar waveform from the wellhead to the fluid surface, wherein the fluid level is a distance between the wellhead and the fluid surface of the fluid; and assessing downhole corrosion or scaling by analyzing signal attenuation associated with a waveform reflected by a defect. transmitting , at a first time and from a wellhead, a radar waveform into a tubing disposed in a wellbore positioned in a reservoir , wherein the radar waveform is a TM01 mode waveform, the tubing comprising a fluid, and a surface of the wellbore comprising the wellhead; receiving , at a second time and at the wellhead, a reflected waveform generated by reflecting the transmitted radar waveform on a fluid surface of the fluid; determining a time difference between the first time and the second time; and determining a fluid level of the fluid based on the time difference and on a transmission speed of the radar waveform from the wellhead to the fluid surface, wherein the fluid level is a distance between the wellhead and the fluid surface of the fluid; and assessing downhole corrosion or scaling by analyzing signal attenuation associated with a waveform reflected by a defect.
A fabric-based item comprising: a layer of fabric formed from extruded strands of material, wherein the layer of fabric has first and second areas wherein the first area is formed from first portions of the extruded strands , wherein the second area is formed from second portions of the extruded strands , wherein the extruded strands are characterized by a property that varies along the length of the extruded strands , and wherein the property has a first value in the first portions and a second value in the second portions.
A method of selecting routing resources in a multi-chip integrated circuit device, the method comprising: placing , by a processor, a design on the multi-chip integrated circuit device to create an initial placement of the design; estimating , by the processor, based upon the initial placement of the design, a number of vias required to enable connections between chips of the multi-chip integrated circuit device that is placed with a portion of the design; identifying , by the processor, an area of a chip having a number of vias that is greater than a maximum number of vias for the area of the chip; selecting , by the processor, a partition window defining resources in the chip that is placed with the portion of the design, where in the partition window is selected to allow the number of vias to meet a maximum requirement of vias for the partition window; and re-placing , by the processor, the portion of the design within the partition window so that the number of vias in the area of the chip is within the maximum number of vias for the area. placing , by a processor, a design on the multi-chip integrated circuit device to create an initial placement of the design; estimating , by the processor, based upon the initial placement of the design, a number of vias required to enable connections between chips of the multi-chip integrated circuit device that is placed with a portion of the design; identifying , by the processor, an area of a chip having a number of vias that is greater than a maximum number of vias for the area of the chip; selecting , by the processor, a partition window defining resources in the chip that is placed with the portion of the design, where in the partition window is selected to allow the number of vias to meet a maximum requirement of vias for the partition window; and re-placing , by the processor, the portion of the design within the partition window so that the number of vias in the area of the chip is within the maximum number of vias for the area.
A vehicle drive device comprising: a power transmission mechanism for transmitting a drive power from a drive power source to a plurality of wheels; a differential gear mechanism provided in the power transmission mechanism and distributing the drive power input from the drive power source to the plurality of wheels; a casing housing the power transmission mechanism ; and an oil pump , the vehicle drive device driving the oil pump in conjunction with rotation of the differential gear mechanism ; a catch tank for storing a lubricating oil provided in the casing , wherein an introduction path (R) is formed in the casing for introducing lubricating oil stored in a storage space (S1a) of the casing , and scooped up by the differential gear mechanism during backward running of a vehicle, into the catch tank , wherein a discharge oil passage connected to a discharge port of the oil pump is connected to the catch tank , wherein the oil pump rotates in a first direction (F2) during forward running of the vehicle to suck the lubricating oil stored in the storage space (S1a) of the casing , characterized in that the oil pump further rotates in a second direction (F4) opposite to the first direction during backward running of the vehicle to suck lubricating oil stored in the catch tank through the discharge oil passage into the oil pump . an introduction path (R) is formed in the casing for introducing lubricating oil stored in a storage space (S1a) of the casing , and scooped up by the differential gear mechanism during backward running of a vehicle, into the catch tank , wherein a discharge oil passage connected to a discharge port of the oil pump is connected to the catch tank , wherein the oil pump rotates in a first direction (F2) during forward running of the vehicle to suck the lubricating oil stored in the storage space (S1a) of the casing , characterized in that the oil pump further rotates in a second direction (F4) opposite to the first direction during backward running of the vehicle to suck lubricating oil stored in the catch tank through the discharge oil passage into the oil pump .