mhurhangee/patent-ind-claim-en huggingface dataset:
A method for compensating for non-ideal isotropic behavior of a field probe , wherein the field probe comprises three orthogonally-directed sensors , the method comprising: during a calibration procedure, for each of a plurality of positions of the field probe relative to a source, each position denoted by a set of angles ( θ , φ ); measuring (S102) a field by a plurality of sensors of the field probe , wherein the measurements are made by each sensor for each set of angles (Θ, Φ); storing (S102) the measurements by the sensors and the set of angles ( θ , φ ); computing (S104) a correction factor for the set of angles ( θ , φ ) based on the measurements, the correction factor being given by: k θ φ = E inc E x θ φ 2 + E y θ φ 2 + E z θ φ 2 where k is the correction factor for the set of angles ( θ , φ ), Ex, Ey and Ez are the fields measured by the three sensors as expressed in an x-y-z coordinate system, respectively, and E inc is a magnitude of an applied known field; and storing (S104) the correction factor. measuring (S102) a field by a plurality of sensors of the field probe , wherein the measurements are made by each sensor for each set of angles (Θ, Φ); storing (S102) the measurements by the sensors and the set of angles ( θ , φ ); computing (S104) a correction factor for the set of angles ( θ , φ ) based on the measurements, the correction factor being given by: k θ φ = E inc E x θ φ 2 + E y θ φ 2 + E z θ φ 2 where k is the correction factor for the set of angles ( θ , φ ), Ex, Ey and Ez are the fields measured by the three sensors as expressed in an x-y-z coordinate system, respectively, and E inc is a magnitude of an applied known field; and storing (S104) the correction factor.
A portable terminal, comprising: a display section, and a control section, wherein the control section is configured to control to: receive a first user input for executing remote control mode for remote control of at least one electronic product using the portable terminal, in response to receiving the first user input, display, on the display section, a first screen for remote control mode of the at least on electronic product, determine whether a communication is initiated during the remote control mode, based on determining that the communication is initiated during the remote control mode, determine whether the communication is an outgoing call or an incoming call , based on determining that the communication is the incoming call, perform a service of the incoming call, identify that the initiated communication is terminated, and in response to identifying that the initiated communication is terminated, provide the remote control mode again. a display section, and a control section, wherein the control section is configured to control to: receive a first user input for executing remote control mode for remote control of at least one electronic product using the portable terminal, in response to receiving the first user input, display, on the display section, a first screen for remote control mode of the at least on electronic product, determine whether a communication is initiated during the remote control mode, based on determining that the communication is initiated during the remote control mode, determine whether the communication is an outgoing call or an incoming call , based on determining that the communication is the incoming call, perform a service of the incoming call, identify that the initiated communication is terminated, and in response to identifying that the initiated communication is terminated, provide the remote control mode again. receive a first user input for executing remote control mode for remote control of at least one electronic product using the portable terminal, in response to receiving the first user input, display, on the display section, a first screen for remote control mode of the at least on electronic product, determine whether a communication is initiated during the remote control mode, based on determining that the communication is initiated during the remote control mode, determine whether the communication is an outgoing call or an incoming call , based on determining that the communication is the incoming call, perform a service of the incoming call, identify that the initiated communication is terminated, and in response to identifying that the initiated communication is terminated, provide the remote control mode again.
Split connector adapted to be used for interconnecting longitudinal profile bars in a frame structure , where the split connector comprises a first connecting element and a second connecting element (3; 4), where the split connector is cube-shaped when the first connecting element and the second connecting element (3; 4) are mounted to each other, characterized in that the first connecting element comprises a first screw hole adapted for connecting the first connecting element to a split profile bar section in a first direction, a second screw hole adapted for connecting the first connecting element to a profile bar in a second direction, where the first direction is perpendicular to the second direction, and a third screw hole adapted for connecting the first connecting element to the second connecting element (3; 4), where the second connecting element (3; 4) comprises a fourth screw hole adapted for connecting the second connecting element to a split profile section in the first direction, a fifth screw hole adapted for connecting the second connecting element to a profile bar , and a first threaded hole adapted for receiving a screw through the third screw hole connecting the first connecting element to the second connecting element (3; 4).
A compound which is dodeca-4,8,11-trien-1-ol.
Gear mechanism with a first gear mechanism part with a primary thread having a first expansion coefficient and with a second gear mechanism part with a secondary thread having a second expansion coefficient, which is distinct from the first expansion coefficient, wherein a thread pairing (35/22) with an axial thread play is formed between the primary thread and the secondary thread , wherein the primary thread is engaged with the secondary thread, characterised in that in at least one region (A) of the thread pairing (35/22) a first axial thread play is formed and in at least one second region (B) of the thread pairing (35/22) a second axial thread play, distinct from the first thread play, is formed.
A method for wireless communications performed by a user equipment, UE, comprising: receiving an indication from a base station, BS, of a type of beam management scheme used by the BS for at least one of: a current transmission or one or more subsequent transmissions, wherein the indication comprises an indication of whether the BS is switching to a different beam for at least the current transmission or the one or more subsequent transmissions than a beam used for a previous transmission; and decoding the at least one of: the current transmission or the one or more subsequent transmissions from the BS in accordance with the indication. receiving an indication from a base station, BS, of a type of beam management scheme used by the BS for at least one of: a current transmission or one or more subsequent transmissions, wherein the indication comprises an indication of whether the BS is switching to a different beam for at least the current transmission or the one or more subsequent transmissions than a beam used for a previous transmission; and decoding the at least one of: the current transmission or the one or more subsequent transmissions from the BS in accordance with the indication.
A receptacle , comprising: a housing ; a circuit board disposed on the housing; and an electric protective cover , the electric protective cover comprising: a cover body that is substantially plate-shaped and extends along a radial direction of the receptacle, wherein an accommodating hole enclosed by an accommodating hole wall is disposed on the cover body to accommodate a connecting terminal ; and a mounting portion disposed on the cover body to be mounted onto the receptacle housing ; characterized in that the mounting portion of the electric protective cover is arranged on the housing ; wherein the cover body covers the circuit board , and wherein an isolating wall is provided on the hole wall ; the isolating wall is arranged to protrude along an axial direction of the accommodating hole ; and the isolating wall is at least partially arranged to face the circuit board along a transverse and/or longitudinal direction of the cover body . a housing ; a circuit board disposed on the housing; and an electric protective cover , the electric protective cover comprising: a cover body that is substantially plate-shaped and extends along a radial direction of the receptacle, wherein an accommodating hole enclosed by an accommodating hole wall is disposed on the cover body to accommodate a connecting terminal ; and a mounting portion disposed on the cover body to be mounted onto the receptacle housing ; characterized in that the mounting portion of the electric protective cover is arranged on the housing ; wherein the cover body covers the circuit board , and wherein an isolating wall is provided on the hole wall ; a cover body that is substantially plate-shaped and extends along a radial direction of the receptacle, wherein an accommodating hole enclosed by an accommodating hole wall is disposed on the cover body to accommodate a connecting terminal ; and a mounting portion disposed on the cover body to be mounted onto the receptacle housing ; characterized in that the mounting portion of the electric protective cover is arranged on the housing ; wherein the cover body covers the circuit board , and wherein an isolating wall is provided on the hole wall ; the isolating wall is arranged to protrude along an axial direction of the accommodating hole ; and the isolating wall is at least partially arranged to face the circuit board along a transverse and/or longitudinal direction of the cover body .
A method comprising: determining , by a computing system, a level of trust that a first network entity has for a second network entity; determining , by the computing system, a level of trust that the second network entity has for a third network entity; determining, by the computing system, that the first network entity is separated from the third network entity by the second network entity; determining , by the computing system and based on the level of trust that the first network entity has for the second network entity and further based on the level of trust that the second network entity has for the third network entity, a level of trust that the first network entity has for the third network entity, wherein determining the level of trust that the first network entity has for the third network entity further includes applying an adjustment to the level of trust based on a degree of separation between the first network entity and the second network entity, the degree of separation including a count of entities that separate the first network entity from the second network entity; and enabling , by the computing system and based on the level of trust that the first network entity has for the third network entity, network data to flow between the first network entity and the third network entity. determining , by a computing system, a level of trust that a first network entity has for a second network entity; determining , by the computing system, a level of trust that the second network entity has for a third network entity; determining, by the computing system, that the first network entity is separated from the third network entity by the second network entity; determining , by the computing system and based on the level of trust that the first network entity has for the second network entity and further based on the level of trust that the second network entity has for the third network entity, a level of trust that the first network entity has for the third network entity, wherein determining the level of trust that the first network entity has for the third network entity further includes applying an adjustment to the level of trust based on a degree of separation between the first network entity and the second network entity, the degree of separation including a count of entities that separate the first network entity from the second network entity; and enabling , by the computing system and based on the level of trust that the first network entity has for the third network entity, network data to flow between the first network entity and the third network entity.
A method to be used in beta-tri-calcium phosphate production, said method is characterized by comprising the steps of: a. Preparing Ca(OH) 2 solution by adding distilled water onto Ca(OH) 2 , b. Bringing reaction temperature to 25-35°C and preferably, to 30°C and continuing mixing, c. Adjusting reaction pH to the range between 7-9 by using HCl acid, d. Adding distilled water onto [(NH 4 ) 2 HPO 4 ] and providing completely dissolving and preparing [(NH 4 ) 2 HPO 4 ] solution, e. Adding [(NH 4 ) 2 HPO 4 ] solution to Ca(OH) 2 solution, f. Bringing reaction pH to between 7-9 by means of NH 4 OH solution and mixing and ending the reaction afterwards, g. Leaving the obtained solution to aging for between 8 and 30 hours, h. Adding distilled water onto [(NH 4 ) 2 SO 4 ] and preparing 3% [(NH 4 ) 2 SO 4 ] solution, i. Decanting the aged solution and adding [(NH 4 ) 2 SO 4 ] solution and leaving for aging for 8-30 hours without mixing, j. Filtering the obtained solution and washing with plenty of water such that the pH of the solution becomes between approximately 6 and 8, preferably 7, k. Drying the obtained humid powder in the stove, . Sintering the dried powder for 1 hour at a temperature between 900 and 1500°C, m. Obtaining the final product by instantaneous cooling of the product at the end of the sintering process. a. Preparing Ca(OH) 2 solution by adding distilled water onto Ca(OH) 2 , b. Bringing reaction temperature to 25-35°C and preferably, to 30°C and continuing mixing, c. Adjusting reaction pH to the range between 7-9 by using HCl acid, d. Adding distilled water onto [(NH 4 ) 2 HPO 4 ] and providing completely dissolving and preparing [(NH 4 ) 2 HPO 4 ] solution, e. Adding [(NH 4 ) 2 HPO 4 ] solution to Ca(OH) 2 solution, f. Bringing reaction pH to between 7-9 by means of NH 4 OH solution and mixing and ending the reaction afterwards, g. Leaving the obtained solution to aging for between 8 and 30 hours, h. Adding distilled water onto [(NH 4 ) 2 SO 4 ] and preparing 3% [(NH 4 ) 2 SO 4 ] solution, i. Decanting the aged solution and adding [(NH 4 ) 2 SO 4 ] solution and leaving for aging for 8-30 hours without mixing, j. Filtering the obtained solution and washing with plenty of water such that the pH of the solution becomes between approximately 6 and 8, preferably 7, k. Drying the obtained humid powder in the stove, . Sintering the dried powder for 1 hour at a temperature between 900 and 1500°C, m. Obtaining the final product by instantaneous cooling of the product at the end of the sintering process.
A recoating device for an additive manufacturing process, the device comprising: a recoating member for guiding a volume of material to a target area; a support structure on which the recoating member is mounted a recoater base coupled with the support structure and at least one biasing component coupled between the recoater base and the support structure; wherein the recoating device is configured such that the recoating member moves in a first direction along a longitude of the target area, and wherein the at least one biasing component is configured to move the recoating member in a second direction different to the first direction. a recoating member for guiding a volume of material to a target area; a support structure on which the recoating member is mounted a recoater base coupled with the support structure and at least one biasing component coupled between the recoater base and the support structure; wherein the recoating device is configured such that the recoating member moves in a first direction along a longitude of the target area, and wherein the at least one biasing component is configured to move the recoating member in a second direction different to the first direction.
A conveying apparatus for conveying a packaging item comprising: - a first conveyor intended to move said packaging item and comprising first magnetic field generating means and an electrical utility ; - a path along which the first conveyor is movable, said path comprising a linear motor which interacts with said first magnetic field generating means so as to determine a linear displacement of the first conveyor along said path ; the magnetic field generating means comprising/being a permanent magnet ; the linear motor comprises a stator that extends along the path ; - electrical power supply means for powering said electrical utility comprising electrical power supply contactless means of the first conveyor ; the contactless means in turn comprises stator means that extends along the path and a cursor that is solidly constrained to the first conveyor and interacts with the stator means . - a first conveyor intended to move said packaging item and comprising first magnetic field generating means and an electrical utility ; - a path along which the first conveyor is movable, said path comprising a linear motor which interacts with said first magnetic field generating means so as to determine a linear displacement of the first conveyor along said path ; the magnetic field generating means comprising/being a permanent magnet ; the linear motor comprises a stator that extends along the path ; - electrical power supply means for powering said electrical utility comprising electrical power supply contactless means of the first conveyor ; the contactless means in turn comprises stator means that extends along the path and a cursor that is solidly constrained to the first conveyor and interacts with the stator means .
An electrical supply support arm, comprising a support arm body and at least one embedded electrical supply plug , wherein the at least one embedded electrical supply plug , comprises a mounting base and a fastener connected to each other, wherein the mounting base is provided with a power taking contact assembly , a circuit board and a power supply connector that are electrically connected to each other, wherein the mounting base is provided with a first fastening surface , and the fastener is provided with a second fastening surface opposite to the first fastening surface , wherein the fastener and the mounting base are threadedly connected to adjust the distance between the first fastening surface and the second fastening surface , wherein the mounting base comprises: a circuit board mounting groove , used for setting the circuit board , wherein the outer periphery of a bottom surface extends outward to form the first fastening surface and an outer surface is provided with external thread ; and a power taking inserting board , fixedly connected to one side of the circuit board mounting groove and used for setting the power taking contact assembly ; and wherein the fastener is a rotating cover, and an inner side of the fastener is provided with an internal thread that cooperates with the external thread ; characterized in that the embedded electrical supply plug is configured to be fixed to the support arm body of the electrical supply support arm, wherein the support arm body is mountable on a column of a shelf. a circuit board mounting groove , used for setting the circuit board , wherein the outer periphery of a bottom surface extends outward to form the first fastening surface and an outer surface is provided with external thread ; and a power taking inserting board , fixedly connected to one side of the circuit board mounting groove and used for setting the power taking contact assembly ; and wherein the fastener is a rotating cover, and an inner side of the fastener is provided with an internal thread that cooperates with the external thread ; characterized in that the embedded electrical supply plug is configured to be fixed to the support arm body of the electrical supply support arm, wherein the support arm body is mountable on a column of a shelf.
A composition for oral use comprising α-lipoic acid, Salvia miltiorrhiza extract and Curcumin or an extract of plants belonging to the genus Curcuma comprising curcumin.
Over the air, OTA, power sensor for measuring power of a wireless signal with at least two different polarizations, the OTA power sensor comprising: first power sensors for every polarization, every power sensor comprising a signal detector for detecting the wireless signal , wherein the signal detectors are single polarized and wherein the polarization planes (7, 8, 28 - 30) of the signal detectors are arranged at an angle of more than zero degree to each other and wherein the main radiation vectors (9, 10, 31 - 33) of the signal detectors are parallel to each other, the first power sensors each comprising a power measurement device (11, 12, 43 - 45), which is configured to measure the power of the detected wireless signal and output a respective measurement signal (13, 14, 46 - 48, 55 - 58). first power sensors for every polarization, every power sensor comprising a signal detector for detecting the wireless signal , wherein the signal detectors are single polarized and wherein the polarization planes (7, 8, 28 - 30) of the signal detectors are arranged at an angle of more than zero degree to each other and wherein the main radiation vectors (9, 10, 31 - 33) of the signal detectors are parallel to each other, the first power sensors each comprising a power measurement device (11, 12, 43 - 45), which is configured to measure the power of the detected wireless signal and output a respective measurement signal (13, 14, 46 - 48, 55 - 58).