mhurhangee/ep-ind-claims huggingface dataset:
A method for generating n, n≥3, control signals (i k *,v k *) used for determining the commutation signals (a) of the switches of an inverter with n phases connected to an electrical machine operating with n phases, which control signals are generated starting from n primary control signals (i k,v k) delivered and determined by an instruction generator which is part of a current regulator provided for obtaining a predetermined reference torque, which commutation signals are applied to the inverter in order to have n electrical currents circulating in the machine in order to produce therein the predetermined reference torque, according to which method there is measured by means of sensors in each of said n phases of the machine an instantaneous value of the current circulating in each of the phases, and wherein at each of the calculation cycles those instantaneous values of the n currents (i mk (t)) are sampled, characterized in that at each of the calculation cycles residues (i r (t)) are determined starting from the n sampled instantaneous current values, which residues are linear combinations of the sampled currents, and that compensation terms are thereafter determined starting from those residues, and wherein those compensation terms are added to the primary control signals in order to obtain the n control signals (i k *,v k *) for determining the commutation signals (a) of the switches destined to control the inverter.
A method for assessing the overall risk of a human female subject for developing a breast cancer phenotype comprising: performing a clinical risk assessment of the female subject; performing a genetic risk assessment of the female subject, wherein the genetic risk assessment involves detecting, in a biological sample derived from the female subject, the presence at least five single nucleotide polymorphisms known to be associated with a breast cancer phenotype selected from the group consisting of rs2981582, rs3803662, rs889312, rs13387042, rs13281615, rs4415084, rs3817198, rs4973768, rs6504950 and rs11249433; and combining the clinical risk assessment with the genetic risk assessment to obtain the overall risk of a human female subject for developing a breast cancer phenotype, wherein the at least five single nucleotide polymorphisms at least comprise rs2981582, rs3803662, rs889312, rs13387042 and rs4415084. performing a clinical risk assessment of the female subject; performing a genetic risk assessment of the female subject, wherein the genetic risk assessment involves detecting, in a biological sample derived from the female subject, the presence at least five single nucleotide polymorphisms known to be associated with a breast cancer phenotype selected from the group consisting of rs2981582, rs3803662, rs889312, rs13387042, rs13281615, rs4415084, rs3817198, rs4973768, rs6504950 and rs11249433; and combining the clinical risk assessment with the genetic risk assessment to obtain the overall risk of a human female subject for developing a breast cancer phenotype, wherein the at least five single nucleotide polymorphisms at least comprise rs2981582, rs3803662, rs889312, rs13387042 and rs4415084.
Procedure for determining a mass flow m of a medium, which is at least two-phase at least temporarily, through a measuring tube (4, 28) of a vortex flowmeter (2, 26), - wherein the measuring tube is inserted in a pipe in such a way that the medium flowing in the pipe flows through the measuring tube in a flow direction, - wherein the measuring tube (4, 28) has at least a bluff body (8, 30) in a measuring section, said bluff body being designed to generate vortices and wherein a flow velocity of the medium in the area of the measuring section is determined by the sensing-based detection of the generated vortices, - and wherein the measuring tube is tapered around an area of the measuring section in relation to connection tubes (40, 42) which follow on at both sides and each have a connection tube cross-section, said procedure comprises the following steps: A) Determination of the density ρ of the medium in the area of the measuring section from the specific, total enthalpy ho of the medium in the area of the measuring section, from the flow velocity u of the medium in the area of the measuring section, from a static pressure p of the medium in the area of the measuring section and from a static temperature T of the medium in the area of the measuring section, and B) Determination of the mass flow m from the determined flow velocity u, from the determined density ρ and a flow cross-section of the medium in the area of the measuring section, wherein the static pressure p and the static temperature T of the medium are measured in the area of the measuring section and wherein the mass flow m and the specific, total enthalpy ho are determined in an iterative manner in that the specific, total enthalpy h 0 is determined from the mass flow m. - wherein the measuring tube is inserted in a pipe in such a way that the medium flowing in the pipe flows through the measuring tube in a flow direction, - wherein the measuring tube (4, 28) has at least a bluff body (8, 30) in a measuring section, said bluff body being designed to generate vortices and wherein a flow velocity of the medium in the area of the measuring section is determined by the sensing-based detection of the generated vortices, - and wherein the measuring tube is tapered around an area of the measuring section in relation to connection tubes (40, 42) which follow on at both sides and each have a connection tube cross-section, A) Determination of the density ρ of the medium in the area of the measuring section from the specific, total enthalpy ho of the medium in the area of the measuring section, from the flow velocity u of the medium in the area of the measuring section, from a static pressure p of the medium in the area of the measuring section and from a static temperature T of the medium in the area of the measuring section, and B) Determination of the mass flow m from the determined flow velocity u, from the determined density ρ and a flow cross-section of the medium in the area of the measuring section,
A compound selected from the group consisting of crystalline anhydrous La 2 O 2 CO 3 and crystalline anhydrous La 2 CO 5, characterized in that the compound has a BET specific surface area of at least 10m 2 /g and wherein the compound, at an amount 3 times the stoichiometric amount needed to react completely with the phosphate, exhibits a phosphate binding of at least 40 wt%, preferably at least 60 wt% of the initial amount of phosphate in a stock solution at room temperature after 10 minutes, wherein the stock solution contains 13.75 g/l of anhydrous Na 2 HPO 4 and 8.5 g/l HCI and has been adjusted to a pH of 3, and wherein the crystalline anhydrous La 2 O 2 CO 3 and crystalline anhydrous La 2 CO 5 are in the form of particles with a porous structure, and wherein the compound is formed from individual crystals having a size from 20 nm to 10 μm.
A method at an augmented reality computing device comprising a see-through display system and a sensor system, the method being for operating a user interface, the method comprising: receiving a user input from one or more of an eye-tracking sensor, a head-tracking sensor, and a hand-tracking sensor of the sensor system and selecting one of a plurality of real and/or virtual objects in a field of view of the see-through display system when at a first distance from the object; determining a first group of commands currently operable on the selected object based on an identification of an object type of the selected object and a current state of the object; and presenting the first group of commands to a user; detecting a change in distance from the first distance of the augmented reality computing device from the object to a second distance from the object in the field of view that is less than the first distance; and in response to detecting the change in distance to the second distance, presenting a second group of commands comprising a greater number of commands for controlling the object than the first group of commands. receiving a user input from one or more of an eye-tracking sensor, a head-tracking sensor, and a hand-tracking sensor of the sensor system and selecting one of a plurality of real and/or virtual objects in a field of view of the see-through display system when at a first distance from the object; determining a first group of commands currently operable on the selected object based on an identification of an object type of the selected object and a current state of the object; and presenting the first group of commands to a user; detecting a change in distance from the first distance of the augmented reality computing device from the object to a second distance from the object in the field of view that is less than the first distance; and in response to detecting the change in distance to the second distance, presenting a second group of commands comprising a greater number of commands for controlling the object than the first group of commands.
Helmet comprising: - a shell comprising at least one vent; - one or more inserts of a cellular energy-absorbing material having a curved shape; and being characterised by - one or more retainers crossing the one or more inserts from side to side and fixed to the shell at opposing sides of each insert for constraining it to the shell, the one or more retainers are shaped so as to laterally and inwardly trap the one or more inserts. - a shell comprising at least one vent; - one or more inserts of a cellular energy-absorbing material having a curved shape; and being characterised by - one or more retainers crossing the one or more inserts from side to side and fixed to the shell at opposing sides of each insert for constraining it to the shell, the one or more retainers are shaped so as to laterally and inwardly trap the one or more inserts.
An elongate drill component (20;120) for percussive drilling comprising: a female threaded end having an outer diameter (Dot), a male threaded end, a central section between said ends having an outer diameter (D oc), wherein the outer diameter of the female threaded end is larger than the outer diameter of the central section; and a through-going flushing channel comprising a central flushing channel (28;128) having a diameter (D ic) and thread flushing channels (29;129) having a diameter (D it), characterized in that the ratio of an elastic section modulus of a threaded joint measured when the female threaded end is connected to the male threaded end of an identical component to an elastic section modulus of the central section, S t / S c, is more than 1.5 and in that a ratio of the diameter of the central flushing channel to the outer diameter of the central section, D ic / D oc is between 0.45 and 0.95. a female threaded end having an outer diameter (Dot), a male threaded end, a central section between said ends having an outer diameter (D oc), wherein the outer diameter of the female threaded end is larger than the outer diameter of the central section; and a through-going flushing channel comprising a central flushing channel (28;128) having a diameter (D ic) and thread flushing channels (29;129) having a diameter (D it), characterized in that the ratio of an elastic section modulus of a threaded joint measured when the female threaded end is connected to the male threaded end of an identical component to an elastic section modulus of the central section, S t / S c, is more than 1.5 and in that a ratio of the diameter of the central flushing channel to the outer diameter of the central section, D ic / D oc is between 0.45 and 0.95.
A liquid crystal display comprising: a first substrate; a plurality of gate lines and a plurality of data lines disposed on the first substrate; a plurality of thin film transistors respectively connected to the plurality of gate lines and the plurality of data lines; a plurality of color filters (230A, 230B, 230C) disposed on the plurality of thin film transistors; a common electrode disposed on the color filters (230A, 230B, 230C); a common voltage line directly contacting the common electrode; a plurality of pixel electrodes disposed on the color filters (230A, 230B, 230C) and overlapping the common electrode, a first insulating layer disposed between the common electrode and the pixel electrodes; a second substrate facing the first substrate, and a light blocking member, wherein at least one of the common electrode and the plurality of pixel electrodes comprises a branch electrode, and the common voltage line includes a first portion parallel to the data lines and overlapping at least one data line and the light blocking member characterized in that the light blocking member is disposed on the first substrate and between two neighboring color filters and disposed at a position corresponding to said at least one data line, and the liquid crystal display further comprises a second insulating layer disposed on the plurality of color filters (230A, 230B, 230C) and the light blocking member, and under the common electrode and the pixel electrodes, the second insulating layer being disposed between the data line and the common voltage line. a first substrate; a plurality of gate lines and a plurality of data lines disposed on the first substrate; a plurality of thin film transistors respectively connected to the plurality of gate lines and the plurality of data lines; a plurality of color filters (230A, 230B, 230C) disposed on the plurality of thin film transistors; a common electrode disposed on the color filters (230A, 230B, 230C); a common voltage line directly contacting the common electrode; a plurality of pixel electrodes disposed on the color filters (230A, 230B, 230C) and overlapping the common electrode, a first insulating layer disposed between the common electrode and the pixel electrodes; a second substrate facing the first substrate, and a light blocking member, wherein at least one of the common electrode and the plurality of pixel electrodes comprises a branch electrode, and the common voltage line includes a first portion parallel to the data lines and overlapping at least one data line and the light blocking member characterized in that the light blocking member is disposed on the first substrate and between two neighboring color filters and disposed at a position corresponding to said at least one data line, and the liquid crystal display further comprises a second insulating layer disposed on the plurality of color filters (230A, 230B, 230C) and the light blocking member, and under the common electrode and the pixel electrodes, the second insulating layer being disposed between the data line and the common voltage line.
A computer-implemented method, comprising: determining, using at least one sensor, whether or not a user is looking at a computer program's window on a screen of a device; in response to determining that the user is looking at the computer program's window on the screen, displaying in the computer program's window on the screen a digital avatar capable of interacting with the user with voice combined with at least one of gesture and facial expression, wherein the digital avatar is a digital avatar of a virtual assistant; and in response to determining that the user is not looking at the computer program's window on the screen, enabling a voice-only virtual assistant of the computer program without displaying the digital avatar, wherein the voice-only virtual assistant is a voice-only virtual assistant mode of said virtual assistant, and wherein the voice-only virtual assistant is capable of interacting with the user with voice but not gestures or facial expressions, wherein the method allows seamless voice-based user interaction when switching between the displayed digital avatar and the voice-only virtual assistant, the voice-only virtual assistant accepting the same user inputs as the displayed digital avatar, and wherein the method also switches from the displayed digital avatar to the voice-only virtual assistant if the user minimizes the computer program's window or if the device goes into a lock screen. determining, using at least one sensor, whether or not a user is looking at a computer program's window on a screen of a device; in response to determining that the user is looking at the computer program's window on the screen, displaying in the computer program's window on the screen a digital avatar capable of interacting with the user with voice combined with at least one of gesture and facial expression, wherein the digital avatar is a digital avatar of a virtual assistant; and in response to determining that the user is not looking at the computer program's window on the screen, enabling a voice-only virtual assistant of the computer program without displaying the digital avatar, wherein the voice-only virtual assistant is a voice-only virtual assistant mode of said virtual assistant, and wherein the voice-only virtual assistant is capable of interacting with the user with voice but not gestures or facial expressions, wherein the method allows seamless voice-based user interaction when switching between the displayed digital avatar and the voice-only virtual assistant, the voice-only virtual assistant accepting the same user inputs as the displayed digital avatar, and wherein the method also switches from the displayed digital avatar to the voice-only virtual assistant if the user minimizes the computer program's window or if the device goes into a lock screen.
A method for minimizing the effects of pylon induced disturbances of the airflow at the propeller blades of propeller propulsion devices attached to an aircraft component by means of upstream pylons, comprising steps of: - a) injecting fluid on the zone of the propeller blades from the rear part of said pylons; - b) obtaining continuously the values of a first set of parameters indicative of the effects of said disturbances; - c) adapting continuously the fluid injection output so that said disturbances are minimized using data obtained in step b), characterized in that said first set parameters comprise one or more of the following: - acoustic pressure inside the aircraft structure and/or at the exterior surface of the aircraft structure; - vibration in the aircraft structure; - vibration in the propeller blades. - a) injecting fluid on the zone of the propeller blades from the rear part of said pylons; - b) obtaining continuously the values of a first set of parameters indicative of the effects of said disturbances; - c) adapting continuously the fluid injection output so that said disturbances are minimized using data obtained in step b), - acoustic pressure inside the aircraft structure and/or at the exterior surface of the aircraft structure; - vibration in the aircraft structure; - vibration in the propeller blades.
An aircraft comprising: an engine; and an engine bleed air system for the aircraft, comprising: a low pressure tap for extracting air having a first low pressure from the compressor section of an engine and a high pressure tap for extracting air having a second high pressure from compressor section, the second pressure being higher than the first pressure; a turbo-compressor having a compressor and a turbine; an environmental control system fluidly connected to an outlet of the compressor by a delivery line; and a bypass line fluidly connecting the high pressure tap to the delivery line, wherein the bypass line delivers air from at least one of the low pressure tap and the high pressure tap to an outlet of the compressor; wherein an inlet of the compressor is fluidly connected to the low pressure tap and an inlet of the turbine is fluidly connected to the high pressure tap; characterized in that a bypass heat exchanger is arranged to remove heat from the bypass line; and in that a balancing heat exchanger is arranged to remove heat from the delivery line, wherein the balancing heat exchanger is arranged to utilize an expanded air flow from an outlet of the turbine as a heat sink. an engine; and an engine bleed air system for the aircraft, comprising: a low pressure tap for extracting air having a first low pressure from the compressor section of an engine and a high pressure tap for extracting air having a second high pressure from compressor section, the second pressure being higher than the first pressure; a turbo-compressor having a compressor and a turbine; an environmental control system fluidly connected to an outlet of the compressor by a delivery line; and a bypass line fluidly connecting the high pressure tap to the delivery line, wherein the bypass line delivers air from at least one of the low pressure tap and the high pressure tap to an outlet of the compressor; wherein a low pressure tap for extracting air having a first low pressure from the compressor section of an engine and a high pressure tap for extracting air having a second high pressure from compressor section, the second pressure being higher than the first pressure; a turbo-compressor having a compressor and a turbine; an environmental control system fluidly connected to an outlet of the compressor by a delivery line; and a bypass line fluidly connecting the high pressure tap to the delivery line, wherein the bypass line delivers air from at least one of the low pressure tap and the high pressure tap to an outlet of the compressor; wherein an inlet of the compressor is fluidly connected to the low pressure tap and an inlet of the turbine is fluidly connected to the high pressure tap; characterized in that a bypass heat exchanger is arranged to remove heat from the bypass line; and in that a balancing heat exchanger is arranged to remove heat from the delivery line, wherein the balancing heat exchanger is arranged to utilize an expanded air flow from an outlet of the turbine as a heat sink.