mhurhangee/patent-ind-claim-en huggingface dataset:
A window treatment comprising: a headrail that is elongate along a first direction and is configured to be mounted to a structure; a weighting element configured such that the window treatment hangs down in front of a window; a plurality of slats between the headrail and the weighting element , each of the plurality of slats comprising an upper surface, a lower surface, a rear surface, and a notch in the rear surface; a first ladder cord that extends along a second direction between the headrail and the weighting element on a first side of the plurality of slats ; a second ladder cord that extends along the second direction between the headrail and the weighting element on a second side of the plurality of slats ; a plurality of ladder rungs that extend between the first ladder cord and the second ladder cord such that the lower surface of each of the plurality of slats rests on a respective ladder rung of the plurality of ladder rungs ; and a coupling that is configured to attach a slat of the plurality of slats to a corresponding ladder rung of the plurality of ladder rungs on which the slat rests, wherein the notch is proximate to the first ladder cord , and wherein the notch is configured to receive the corresponding ladder rung , characterized in that the coupling comprises an arm that bridges the notch to secure the corresponding ladder rung within the notch . a headrail that is elongate along a first direction and is configured to be mounted to a structure; a weighting element configured such that the window treatment hangs down in front of a window; a plurality of slats between the headrail and the weighting element , each of the plurality of slats comprising an upper surface, a lower surface, a rear surface, and a notch in the rear surface; a first ladder cord that extends along a second direction between the headrail and the weighting element on a first side of the plurality of slats ; a second ladder cord that extends along the second direction between the headrail and the weighting element on a second side of the plurality of slats ; a plurality of ladder rungs that extend between the first ladder cord and the second ladder cord such that the lower surface of each of the plurality of slats rests on a respective ladder rung of the plurality of ladder rungs ; and a coupling that is configured to attach a slat of the plurality of slats to a corresponding ladder rung of the plurality of ladder rungs on which the slat rests, wherein the notch is proximate to the first ladder cord , and wherein the notch is configured to receive the corresponding ladder rung , characterized in that the coupling comprises an arm that bridges the notch to secure the corresponding ladder rung within the notch .
A method for adapting a cross-sectional shape of a root of a wind turbine blade , the method comprising: providing a root flange configured to be mounted to the root of the wind turbine blade ; arranging the root flange with the root of the wind turbine blade ; joining a plurality of push elements to the root flange , the push elements being configured to push a wall of the root of the wind turbine blade ; and pushing the wall of the root of the wind turbine blade with one or more of the push elements . providing a root flange configured to be mounted to the root of the wind turbine blade ; arranging the root flange with the root of the wind turbine blade ; joining a plurality of push elements to the root flange , the push elements being configured to push a wall of the root of the wind turbine blade ; and pushing the wall of the root of the wind turbine blade with one or more of the push elements .
A process for the measurement and feedback control of the pH of a buffer solution forming the release medium in a device for testing the dissolution and release of pharmaceutical formulations for oral administration, in which device set points are followed, reproducing the evolution of physiological pH which takes place in the course of digestion in the stomach, which process includes the following operations: a) calibration for the pH reading, through the use of solutions at known pH, for example 4 and 7, for the detection of hydrogen ion concentration in the release medium, and subsequent correlation with the electric potential values provided by a pH probe, to obtain a calibration line; b) preparation of pH correction solutions using acid and basic aqueous solutions, consisting of aqueous solutions of inorganic or organic acids and bases, or biological fluids, or simulated biological fluids; c) periodic reading of the pH of the release solution by means of a pH probe; d) periodic comparison of the pH value measured with the pH set-point, variable over the set period of time; e) periodic feedback control action, resulting in an addition, to said release medium, of an acid or basic correction solution, to minimize the difference between the desired set-point value and the measured value; f) periodic quantification of the volume of correction solution added, said quantification being used to determine the drug concentration in the release medium. a) calibration for the pH reading, through the use of solutions at known pH, for example 4 and 7, for the detection of hydrogen ion concentration in the release medium, and subsequent correlation with the electric potential values provided by a pH probe, to obtain a calibration line; b) preparation of pH correction solutions using acid and basic aqueous solutions, consisting of aqueous solutions of inorganic or organic acids and bases, or biological fluids, or simulated biological fluids; c) periodic reading of the pH of the release solution by means of a pH probe; d) periodic comparison of the pH value measured with the pH set-point, variable over the set period of time; e) periodic feedback control action, resulting in an addition, to said release medium, of an acid or basic correction solution, to minimize the difference between the desired set-point value and the measured value; f) periodic quantification of the volume of correction solution added, said quantification being used to determine the drug concentration in the release medium.
A process for preparation of compound of formula 1, comprising: a) fluorinating compound of formula 3 to obtain a compound of formula 2, b) flushing an inert gas through the system, c) contacting the compound of formula 2 with hydrolysing agent selected from a group consisting of sulphuric acid, sulphur trioxide, nitric acid, phosphoric acid and Lewis acid catalyst, wherein the lewis acid catalyst is selected from a group consisting of zinc chloride, titanium chloride, boron trifluoride, tin chloride and ferric chloride or a mixture thereof, to obtain the compound of formula 1, and d) isolating the compound of formula 1; wherein the steps a) and c) are performed without organic solvent; wherein step a) is carried out without any catalyst at a pressure range of 1.6 to 2.2 MPa (16 to 22 Kg/cm2) and at a temperature selected in the range from 50 to 150°C; and wherein the process is carried out in-situ without isolating the compound of formula 2. a) fluorinating compound of formula 3 to obtain a compound of formula 2, b) flushing an inert gas through the system, c) contacting the compound of formula 2 with hydrolysing agent selected from a group consisting of sulphuric acid, sulphur trioxide, nitric acid, phosphoric acid and Lewis acid catalyst, wherein the lewis acid catalyst is selected from a group consisting of zinc chloride, titanium chloride, boron trifluoride, tin chloride and ferric chloride or a mixture thereof, to obtain the compound of formula 1, and d) isolating the compound of formula 1; wherein the steps a) and c) are performed without organic solvent; wherein step a) is carried out without any catalyst at a pressure range of 1.6 to 2.2 MPa (16 to 22 Kg/cm2) and at a temperature selected in the range from 50 to 150°C; and wherein the process is carried out in-situ without isolating the compound of formula 2.
A method, performed in a core network associated with a radio access network, RAN , for scheduling resources in the RAN according to a transmission schedule associated with an external network, the method comprising: receiving , from the external network, a transmission schedule associated with a time-sensitive data stream, wherein the time-sensitive data stream is a data stream of a Time-Sensitive Network, TSN; sending , to the RAN , a request to allocate radio resources for communication of the data stream between the RAN and a user equipment, UE , wherein the request further comprises information related to the transmission schedule; and receiving , from the RAN , a response indicating whether radio resources can be allocated to meet the transmission schedule associated with the data stream. receiving , from the external network, a transmission schedule associated with a time-sensitive data stream, wherein the time-sensitive data stream is a data stream of a Time-Sensitive Network, TSN; sending , to the RAN , a request to allocate radio resources for communication of the data stream between the RAN and a user equipment, UE , wherein the request further comprises information related to the transmission schedule; and receiving , from the RAN , a response indicating whether radio resources can be allocated to meet the transmission schedule associated with the data stream.
A metal powder composed of many spherical particles, wherein the metal powder comprises at least one of Ni, Fe, and Co, wherein the total content (T.C.) of the Ni, the Fe, and the Co is 50 mass% or more, wherein the metal powder has a cumulative 10 vol% particle size D10 of 1.0 μm or more, characterized in that a value Y is 7.5 to 12.0 as calculated by the following mathematical equation: Y = D 50 m × ρ kg / m 3 × S m 2 / kg wherein D50 (m) represents a cumulative 50 vol% particle size of the powder, ρ (kg/m 3 ) represents a true density of the powder, and S (m 2 /kg) represents a specific surface area of the powder, and wherein the cumulative 10 vol% particle size D10 and the cumulative 50 vol% particle size D50 are measured by a laser diffraction scattering method, the true density is measured by a gas displacement method, and the specific surface area is measured by a gas adsorption method. wherein D50 (m) represents a cumulative 50 vol% particle size of the powder, ρ (kg/m 3 ) represents a true density of the powder, and S (m 2 /kg) represents a specific surface area of the powder, and wherein the cumulative 10 vol% particle size D10 and the cumulative 50 vol% particle size D50 are measured by a laser diffraction scattering method, the true density is measured by a gas displacement method, and the specific surface area is measured by a gas adsorption method.
A method for use in estimating blood flow in an intravascular blood pump , comprising the step: - retrieving reference data from a set of reference data obtained in a test environment, said set of reference data comprising, for at least one motor speed (N) at different pump loads including a first pump load, both a reference motor current (I) of a motor driving the blood pump and an amount of fluid flow (FL) through the blood pump, characterized in that the method further comprises the steps: - after placement of the blood pump in a patient, measuring a patient-specific motor current for the at least one motor speed (N) at said first pump load, - calculating a motor current deviation value (ΔI) from the reference motor current (I) at said first pump load and the patient-specific motor current for the at least one motor speed (N) at the first pump load and - applying the motor current deviation value (ΔI) for estimating a patient-specific blood flow (FL) amount through the blood pump. - retrieving reference data from a set of reference data obtained in a test environment, said set of reference data comprising, for at least one motor speed (N) at different pump loads including a first pump load, both a reference motor current (I) of a motor driving the blood pump and an amount of fluid flow (FL) through the blood pump, - after placement of the blood pump in a patient, measuring a patient-specific motor current for the at least one motor speed (N) at said first pump load, - calculating a motor current deviation value (ΔI) from the reference motor current (I) at said first pump load and the patient-specific motor current for the at least one motor speed (N) at the first pump load and - applying the motor current deviation value (ΔI) for estimating a patient-specific blood flow (FL) amount through the blood pump.
A display device comprising: a first body ; a second body configured to move relative to the first body along a first direction or the opposite direction of the first direction between a first position and a second position; a roller coupled to the second body and configured to rotate about a rotational axis aligned in a second direction perpendicular to the first direction and the opposite direction of the first direction, wherein a plurality of engagement protrusions are formed along an outer circumferential surface of the roller ; a flexible display comprising a first region fixed at a front of the first body and a second region extending from the first region , wherein a portion of the second region is curved around the roller ; and a plurality of support bars aligned in the second direction and fixed to an inner surface of the second region , wherein the plurality of support bars are configured to engage with the plurality of engagement protrusions of the roller , characterized by the display device further comprising a screw shaft coupled to the second body to form a rotational shaft of the roller , wherein the roller is screwed onto the screw shaft . a first body ; a second body configured to move relative to the first body along a first direction or the opposite direction of the first direction between a first position and a second position; a roller coupled to the second body and configured to rotate about a rotational axis aligned in a second direction perpendicular to the first direction and the opposite direction of the first direction, wherein a plurality of engagement protrusions are formed along an outer circumferential surface of the roller ; a flexible display comprising a first region fixed at a front of the first body and a second region extending from the first region , wherein a portion of the second region is curved around the roller ; and a plurality of support bars aligned in the second direction and fixed to an inner surface of the second region , wherein the plurality of support bars are configured to engage with the plurality of engagement protrusions of the roller ,
A lead-free glass composition, containing silver oxide, tellurium oxide, and vanadium oxide, further, as additional components, containing at least one of yttrium oxide, lanthanum oxide, cerium oxide, erbium oxide, ytterbium oxide, aluminum oxide, gallium oxide, indium oxide, iron oxide, tungsten oxide, and molybdenum oxide, wherein the contents (mol %) of the silver oxide, the tellurium oxide, and the vanadium oxide, when calculated in terms of the oxides as shown below, have the relationship of Ag 2 O > TeO 2 ≥ V 2 O 5 , and Ag 2 O ≤ 2V 2 O 5 , and wherein the content of TeO 2 is 25 mol % to 37 mol %, characterized in that when calculated in terms of the oxides, the content of Ag 2 O is equal to or greater than 40 mol % and less than 50 mol %, and the content of V 2 O 5 is equal to or greater than 20 mol % and less than 30 mol %. further, as additional components, containing at least one of yttrium oxide, lanthanum oxide, cerium oxide, erbium oxide, ytterbium oxide, aluminum oxide, gallium oxide, indium oxide, iron oxide, tungsten oxide, and molybdenum oxide, wherein the contents (mol %) of the silver oxide, the tellurium oxide, and the vanadium oxide, when calculated in terms of the oxides as shown below, have the relationship of Ag 2 O > TeO 2 ≥ V 2 O 5 , and Ag 2 O ≤ 2V 2 O 5 , and wherein the content of TeO 2 is 25 mol % to 37 mol %, characterized in that
A contact sensor comprising: a permanent magnet ; a first magnetic field sensor configured to make a first measurement of a magnetic field induced by the permanent magnet ; a second magnetic field sensor configured to make a second measurement of the magnetic field; the first and the second magnetic field sensors being arranged apart from each other; and and a computing device in communication with the first magnetic field sensor and the second magnetic field sensor , the computing device configured to execute an "Open/Close" function based on at least one of the first measurement or the second measurement, and configured to execute a "Masking" function based on the first measurement and the second measurement, wherein the permanent magnet is movable between a first magnet position and a second magnet position, wherein a sensing direction of the first magnetic field sensor and the second magnetic field sensor is substantially in parallel to a magnetic field axis of the permanent magnet when the permanent magnet is at the first magnet position, and wherein the first magnetic field sensor and the second magnetic field sensor are positioned along an axis that is substantially perpendicular to the magnetic field axis of the permanent magnet when the permanent magnet is at the first magnet position. a permanent magnet ; a first magnetic field sensor configured to make a first measurement of a magnetic field induced by the permanent magnet ; a second magnetic field sensor configured to make a second measurement of the magnetic field; the first and the second magnetic field sensors being arranged apart from each other; and and a computing device in communication with the first magnetic field sensor and the second magnetic field sensor , the computing device configured to execute an "Open/Close" function based on at least one of the first measurement or the second measurement, and configured to execute a "Masking" function based on the first measurement and the second measurement, wherein the permanent magnet is movable between a first magnet position and a second magnet position, wherein a sensing direction of the first magnetic field sensor and the second magnetic field sensor is substantially in parallel to a magnetic field axis of the permanent magnet when the permanent magnet is at the first magnet position, and wherein the first magnetic field sensor and the second magnetic field sensor are positioned along an axis that is substantially perpendicular to the magnetic field axis of the permanent magnet when the permanent magnet is at the first magnet position.
Spike setting gun with a gun housing , a gun head , a setting device which can be moved by means of a drive between a starting position and a setting position and receives a spike , and with at least three spreading fingers which are mounted pivotably and are arranged around the main axis (a 1 ) of the spike setting gun , characterized in that the spreading fingers can be moved by means of at least one separate drive simultaneously and parallel to the main axis (a 1 ) of the spike setting gun and relative to the setting device .
Device for preparing a dose of material, the device comprising: - a reservoir containing the material, the reservoir being in fluidic communication with a chamber for dosing the material, the chamber being in fluidic communication with a container adapted for receiving the dose of material, so that the material to be dosed passes through the chamber between the reservoir and the container , - the device comprising a vacuum source for establishing an initial pressure Pi in the chamber , and a pressure sensor for measuring the pressure in the chamber , the material entry in the chamber inducing a pressure variation in the chamber from the initial pressure Pi to a finale pressure Pf, corresponding to, at constant temperature, the dose of material, - the device comprising a command module connected to the pressure sensor . characterized in that said module controls the fluidic communication between the chamber and the reservoir , so as to regulate the entry of material in the chamber , according to the pressure in the chamber measured by means of the pressure sensor , wherein the command module limits the introduction of material in the chamber to the amount necessary for varying the pressure in the chamber from the initial pressure Pi to the final pressure Pf, and wherein the command module controls the material entry to adjust the pressure in the chamber at the final pressure Pf. - a reservoir containing the material, the reservoir being in fluidic communication with a chamber for dosing the material, the chamber being in fluidic communication with a container adapted for receiving the dose of material, so that the material to be dosed passes through the chamber between the reservoir and the container , - the device comprising a vacuum source for establishing an initial pressure Pi in the chamber , and a pressure sensor for measuring the pressure in the chamber , the material entry in the chamber inducing a pressure variation in the chamber from the initial pressure Pi to a finale pressure Pf, corresponding to, at constant temperature, the dose of material, - the device comprising a command module connected to the pressure sensor .
A method, comprising: requesting enablement of one of a plurality of functions in an aircraft ; transmitting enablement data through a wireless communications link to the aircraft ; enabling the function in the aircraft during movement of the aircraft based on the enablement data by unlocking the function to permit the enabled function to be selectively activated during movement of the aircraft upon receipt of a function enablement key provided through the aircraft communications system from an operations center ; and transmitting confirmation data from the aircraft to the operations center , the confirmation data confirming enablement of the enabled function in the aircraft and including an identity of the enabled function and a time period in which the function was enabled. requesting enablement of one of a plurality of functions in an aircraft ; transmitting enablement data through a wireless communications link to the aircraft ; enabling the function in the aircraft during movement of the aircraft based on the enablement data by unlocking the function to permit the enabled function to be selectively activated during movement of the aircraft upon receipt of a function enablement key provided through the aircraft communications system from an operations center ; and transmitting confirmation data from the aircraft to the operations center , the confirmation data confirming enablement of the enabled function in the aircraft and including an identity of the enabled function and a time period in which the function was enabled.