mhurhangee/ep-ind-claims huggingface dataset:
A method of determining properties of a fluid having an oil phase, a water phase, and an emulsion phase between the oil phase and water phase, the method comprising: emitting an electromagnetic wave into the fluid using a guided wave radar; measuring an amplitude of a reflection of the electromagnetic wave off an interface between the oil phase and the emulsion phase; determining a dielectric constant of the emulsion phase based on the amplitude of the reflection of the electromagnetic wave from the interface; determining a water-in-liquid ratio of the emulsion phase based on the dielectric constant; determining a height of a coalescing portion ( h c) of the interface between the oil phase and the emulsion phase based on the emitted and reflected waves; determining a height of a creaming portion ( h s) of the interface between the emulsion phase and the water phase based on a total height ( h t) of the fluid, the height of a coalescing portion ( h c) and the water-in-liquid ratio of the emulsion phase; and determining a thickness of the emulsion phase based on the difference between the height of the coalescing portion ( h c) and the height of the creaming portion (hs). emitting an electromagnetic wave into the fluid using a guided wave radar; measuring an amplitude of a reflection of the electromagnetic wave off an interface between the oil phase and the emulsion phase; determining a dielectric constant of the emulsion phase based on the amplitude of the reflection of the electromagnetic wave from the interface; determining a water-in-liquid ratio of the emulsion phase based on the dielectric constant; determining a height of a coalescing portion ( h c) of the interface between the oil phase and the emulsion phase based on the emitted and reflected waves; determining a height of a creaming portion ( h s) of the interface between the emulsion phase and the water phase based on a total height ( h t) of the fluid, the height of a coalescing portion ( h c) and the water-in-liquid ratio of the emulsion phase; and determining a thickness of the emulsion phase based on the difference between the height of the coalescing portion ( h c) and the height of the creaming portion (hs).
A method of wireless communication, comprising: determining, by a user equipment, UE, a time period since a last beam change of one or more serving beams received at the LTE from a serving base station; measuring, by the LTE, a first pathloss of a current serving beam in response to the time period exceeding a minimum time threshold, the first pathloss being based on a layer 3 filtered beam reference signal receive power; and measuring, by the UE, a second pathloss of the current serving beam in response to the time period being below the minimum time threshold, the second pathloss being based on a layer 1 filtered beam quality. determining, by a user equipment, UE, a time period since a last beam change of one or more serving beams received at the LTE from a serving base station; measuring, by the LTE, a first pathloss of a current serving beam in response to the time period exceeding a minimum time threshold, the first pathloss being based on a layer 3 filtered beam reference signal receive power; and measuring, by the UE, a second pathloss of the current serving beam in response to the time period being below the minimum time threshold, the second pathloss being based on a layer 1 filtered beam quality.
A shielding apparatus for inclusion in a wireless power transmission apparatus for wirelessly transmitting power to a wireless power reception apparatus, the shielding apparatus comprising: a first shielding unit for changing a transmission path of a portion of a magnetic field generated from a transmission coil of the wireless power transmission apparatus that generates the magnetic field to wirelessly transmit the power to the wireless power reception apparatus; wherein the first shielding unit is for placing on the transmission coil, and a second shielding unit for shielding the portion of the magnetic field which has passed through the first shielding unit, wherein the second shielding unit is placed on the first shielding unit, wherein a real component value of permeability of the first shielding unit is greater than an imaginary component value of the permeability of the first shielding unit, and wherein an imaginary component value of permeability of the second shielding unit is greater than a real component value of the permeability of the second shielding unit, wherein the real component value of the permeability of the first shielding unit is equal to or greater than 10 times of the imaginary component value of the permeability of the first shielding unit, and is equal to or less than 1000 times of the imaginary component value of the permeability of the first shielding unit, wherein the imaginary component value of the permeability of the second shielding unit is greater than 1 time of the real component value of the permeability of the second shielding unit and equal to or less than 10 times of the real component value of the permeability of the second shielding unit, wherein the values of the permeability of the shielding units refer to a frequency used for the wireless power transmission. a first shielding unit for changing a transmission path of a portion of a magnetic field generated from a transmission coil of the wireless power transmission apparatus that generates the magnetic field to wirelessly transmit the power to the wireless power reception apparatus; wherein the first shielding unit is for placing on the transmission coil, and a second shielding unit for shielding the portion of the magnetic field which has passed through the first shielding unit,
A sublingual formulation in the form of a lyophilized pharmaceutical composition that provides sublingual adsorption of riluzole comprising an effective amount of riluzole or a pharmaceutically acceptable salt, solvate, anomer, enantiomer, hydrate or prodrug thereof, said formulation further comprising a tablet binder, a sugar alcohol selected from the group consisting of mannitol and sorbitol as a bulking agent, and docusate sodium as a solubilizing agent.
A roll method for an aircraft, the aircraft comprising an aircraft body and a remote control, wherein the aircraft body comprises a motor, a power supply and a H-bridge chip which is configured to be electrically connected in parallel to the motor, and wherein the aircraft body further comprises a controller and a six-axis inertial sensor, characterized in that, the method comprises steps of: S 1, inputting a desired roll angle of the aircraft by a user on the remote control, and transmitting the desired roll angle to the controller by the remote control, wherein the desired roll angle is 180° or 360°; S 2, detecting a current real-time roll angle of the aircraft relative to a horizontal plane and transmitting the real-time roll angle to the controller by the six-axis inertial sensor; S 3, calculating a difference value between the desired roll angle and the real-time roll angle and calculating a reverse-rotation voltage according to the difference value by the controller; and S 4, controlling the H-bridge chip by the controller so that the reverse-rotation voltage is input to the motor. S 1, inputting a desired roll angle of the aircraft by a user on the remote control, and transmitting the desired roll angle to the controller by the remote control, wherein the desired roll angle is 180° or 360°; S 2, detecting a current real-time roll angle of the aircraft relative to a horizontal plane and transmitting the real-time roll angle to the controller by the six-axis inertial sensor; S 3, calculating a difference value between the desired roll angle and the real-time roll angle and calculating a reverse-rotation voltage according to the difference value by the controller; and S 4, controlling the H-bridge chip by the controller so that the reverse-rotation voltage is input to the motor.
An adapter assembly, for selectively connecting end effectors to actuation units of surgical devices, comprising: a base member defining a longitudinal axis (X-X); a housing rotatably secured to the base member, the housing rotatable in relation to the base member between a plurality of positions; and a locking mechanism supported on the housing, the locking mechanism including: a locking member moveable from a locked position in which a lock of the locking member is engaged with the base member to secure the housing in one of the plurality of positions to an unlocked position in which the housing is rotatable in relation to the base member; and a button positioned on the base member; characterised in that the button is confined to a movement towards and away from the longitudinal axis (x-x) and is depressible to translate the locking member in a direction parallel to the longitudinal axis from the locked position to the unlocked position. a base member defining a longitudinal axis (X-X); a housing rotatably secured to the base member, the housing rotatable in relation to the base member between a plurality of positions; and a locking mechanism supported on the housing, the locking mechanism including: a locking member moveable from a locked position in which a lock of the locking member is engaged with the base member to secure the housing in one of the plurality of positions to an unlocked position in which the housing is rotatable in relation to the base member; and a button positioned on the base member; characterised in that the button is confined to a movement towards and away from the longitudinal axis (x-x) and is depressible to translate the locking member in a direction parallel to the longitudinal axis from the locked position to the unlocked position. a locking member moveable from a locked position in which a lock of the locking member is engaged with the base member to secure the housing in one of the plurality of positions to an unlocked position in which the housing is rotatable in relation to the base member; and a button positioned on the base member; characterised in that the button is confined to a movement towards and away from the longitudinal axis (x-x) and is depressible to translate the locking member in a direction parallel to the longitudinal axis from the locked position to the unlocked position.
An assembly, comprising: a first member; a second member maintained in a spaced apart relationship from the first member; a clutch plate (210, 212) having radially extending engagement structures (115, 125) and a body; a housing having a substantially cylindrical wall with grooves formed therein, wherein the radially extending engagement structures of the clutch plate are disposed within the grooves of the substantially cylindrical wall; and characterized in that disposed between the first member and second member, the clutch plate (210, 212) having a first half with inclined surfaces formed on the engagement structures and the body and a second half with mating inclined surfaces formed on the engagement structures and the body, the first half and the second half being slidably rotatable with respect to one another, wherein the first half and second half of the clutch plate (210, 212) rotate in opposite directions to widen a width of each radially extending engagement structure (115, 125) when axial pressure (A p) is applied to the first member. a first member; a second member maintained in a spaced apart relationship from the first member; a clutch plate (210, 212) having radially extending engagement structures (115, 125) and a body; a housing having a substantially cylindrical wall with grooves formed therein, wherein the radially extending engagement structures of the clutch plate are disposed within the grooves of the substantially cylindrical wall; and characterized in that disposed between the first member and second member, the clutch plate (210, 212) having a first half with inclined surfaces formed on the engagement structures and the body and a second half with mating inclined surfaces formed on the engagement structures and the body, the first half and the second half being slidably rotatable with respect to one another, wherein the first half and second half of the clutch plate (210, 212) rotate in opposite directions to widen a width of each radially extending engagement structure (115, 125) when axial pressure (A p) is applied to the first member.
An analog electronic circuit for processing a light signal, of the type comprising: - a photodetector adapted for producing an electric signal from a light signal; - a multiplier adapted for multiplying the electric signal with a reference signal in order to obtain a multiplied signal; - an integrator adapted for integrating the multiplied signal over at least one time interval, in order to obtain at least one integrated signal, - an analog memory adapted for storing the integrated signal, the memory comprising a plurality of data registers (26, 28, 30), one of said registers being adapted for storing the integrated signal and a reference register adapted for storing a reference voltage; and - a computing unit adapted for estimating a time correlation of the light signal from the integrated signal stored in memory, the computer unit comprising a differential input multiplier, the differential input multiplier being adapted for multiplying the contents of two registers of the memory, one of the two registers being adapted to store the integrated signal. - a photodetector adapted for producing an electric signal from a light signal; - a multiplier adapted for multiplying the electric signal with a reference signal in order to obtain a multiplied signal; - an integrator adapted for integrating the multiplied signal over at least one time interval, in order to obtain at least one integrated signal, - an analog memory adapted for storing the integrated signal, the memory comprising a plurality of data registers (26, 28, 30), one of said registers being adapted for storing the integrated signal and a reference register adapted for storing a reference voltage; and - a computing unit adapted for estimating a time correlation of the light signal from the integrated signal stored in memory, the computer unit comprising a differential input multiplier, the differential input multiplier being adapted for multiplying the contents of two registers of the memory, one of the two registers being adapted to store the integrated signal.
A method for genotyping one or more multiallelic markers using a computer system, the method comprising: acquiring signals for one or more multiallelic markers in one or more samples, said one or more multiallelic markers comprising n alleles, wherein n is the number of possible alleles that is three or more; for each multiallelic marker, clustering the signals for each pair of alleles in a plurality of allele pairs from the one or more samples, resulting in clusters representing each allele pair; for each homozygous cluster representing a homozygous allele pair, collecting signals for an alternative allele for calculation of a background signal for the alternative allele, resulting in a plurality of background signals each representing a respective allele; assigning initial genotype calls for each sample for each allele pair based upon the signals and the background signals; calculating a multivariate normal distribution in an n-dimensional space for each cluster using the initial genotype calls and prior cluster parameters; for each multivariate normal distribution for each cluster, calculating a logarithmic likelihood of membership for each sample; based on the logarithmic likelihood of membership, calculating, for each sample, a probability of membership in each cluster; and assigning a final genotype call to each sample based on the probability of membership. acquiring signals for one or more multiallelic markers in one or more samples, said one or more multiallelic markers comprising n alleles, wherein n is the number of possible alleles that is three or more; for each multiallelic marker, clustering the signals for each pair of alleles in a plurality of allele pairs from the one or more samples, resulting in clusters representing each allele pair; for each homozygous cluster representing a homozygous allele pair, collecting signals for an alternative allele for calculation of a background signal for the alternative allele, resulting in a plurality of background signals each representing a respective allele; assigning initial genotype calls for each sample for each allele pair based upon the signals and the background signals; calculating a multivariate normal distribution in an n-dimensional space for each cluster using the initial genotype calls and prior cluster parameters; for each multivariate normal distribution for each cluster, calculating a logarithmic likelihood of membership for each sample; based on the logarithmic likelihood of membership, calculating, for each sample, a probability of membership in each cluster; and assigning a final genotype call to each sample based on the probability of membership.
Method for a first coordinator operating at a first channel frequency in a wireless personal area network, the wireless personal area network further comprising a second coordinator operating a second channel frequency, the method comprising the steps of: - transmitting a message at a plurality of channel frequencies including the second channel frequency; - requesting the second coordinator to change from the second channel frequency to the first channel frequency; and - communicating with the second coordinator using the first channel frequency. - transmitting a message at a plurality of channel frequencies including the second channel frequency; - requesting the second coordinator to change from the second channel frequency to the first channel frequency; and - communicating with the second coordinator using the first channel frequency.
A method performed in a core network node (200, 300, 400, 500) for creating a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, message, which GTP message comprises a GTP header followed by at least one information element, IE, associated with a special IE type in a set of predefined IE types and which IE comprises a plurality of fields wherein the special IE type is identified by a value encoded in a predefined IE Type Field in a first Octet of the IE, characterized in that, the method comprising: reserving an IE Type Extension field in a fourth and fifth octet of the IE or in a fifth and sixth octet of the IE, for enabling a definition of an additional set of new IE types being an extension of the special IE type; and configuring the reserved IE Type Extension field so as to define at least one new IE type in addition to the predefined set of IE types. reserving an IE Type Extension field in a fourth and fifth octet of the IE or in a fifth and sixth octet of the IE, for enabling a definition of an additional set of new IE types being an extension of the special IE type; and configuring the reserved IE Type Extension field so as to define at least one new IE type in addition to the predefined set of IE types.
A method for manufacturing a primary preform for optical fibres by means of an internal plasma chemical vapour deposition (PCVD) process in a hollow glass substrate tube having a supply side and a discharge side, which method comprises the steps of: i) supplying a gas flow in the interior of said hollow substrate tube via the supply side thereof, said gas flow comprising a main gas flow comprising at least one glass-forming gas and at least one secondary gas flow comprising at least one precursor for a dopant; ii) creating a plasma reaction zone in the interior of said hollow substrate tube by means of microwave radiation for effecting the deposition of glass layers on the inner surface of said hollow substrate tube, said reaction zone being moved back and forth along the longitudinal axis of said hollow substrate tube between a reversal point located near the supply side and a reversal point located near the discharge side of said hollow substrate tube, to obtain a substrate tube having glass layers deposited on its inner surface; iii) optionally subjecting the substrate tube having glass layers deposited on its inner surface obtained in step ii) to a collapsing treatment so as to form a solid primary preform; characterized in that the supply of the at least one secondary gas flow is interrupted during step ii) when the plasma reaction zone is located near or at the reversal point located near the supply side and/or the reversal point located near the discharge side. i) supplying a gas flow in the interior of said hollow substrate tube via the supply side thereof, said gas flow comprising a main gas flow comprising at least one glass-forming gas and at least one secondary gas flow comprising at least one precursor for a dopant; ii) creating a plasma reaction zone in the interior of said hollow substrate tube by means of microwave radiation for effecting the deposition of glass layers on the inner surface of said hollow substrate tube, said reaction zone being moved back and forth along the longitudinal axis of said hollow substrate tube between a reversal point located near the supply side and a reversal point located near the discharge side of said hollow substrate tube, to obtain a substrate tube having glass layers deposited on its inner surface; iii) optionally subjecting the substrate tube having glass layers deposited on its inner surface obtained in step ii) to a collapsing treatment so as to form a solid primary preform;
A method for creating a cephalometric image of at least part of a human skull in an extra-oral dental imaging system, said system comprising: - an X-ray source for irradiating an object to be imaged; - an imaging device suitable for producing multiple frames during at least part of an exposure of said object; - a manipulator for displacing the imaging device along an exposure profile between multiple frames during said at least part of the exposure of said object, the manipulator permitting the movement of the imaging device along a scanning direction, characterized in that said method comprises the following steps: - setting said imaging device with an active area having in an imaging plane a width, extending along said scanning direction, said width varying along a height direction perpendicular to said scanning direction, said active area being the area of the sensor which is irradiated during the cephalometric scan and which participates in the cephalometric image reconstruction process; - synchronously displacing the X-ray source and the imaging device along said exposure profile; and - registering said multiple frames produced by the imaging device during the exposure of said object to be imaged. - an X-ray source for irradiating an object to be imaged; - an imaging device suitable for producing multiple frames during at least part of an exposure of said object; - a manipulator for displacing the imaging device along an exposure profile between multiple frames during said at least part of the exposure of said object, the manipulator permitting the movement of the imaging device along a scanning direction, - setting said imaging device with an active area having in an imaging plane a width, extending along said scanning direction, said width varying along a height direction perpendicular to said scanning direction, said active area being the area of the sensor which is irradiated during the cephalometric scan and which participates in the cephalometric image reconstruction process; - synchronously displacing the X-ray source and the imaging device along said exposure profile; and - registering said multiple frames produced by the imaging device during the exposure of said object to be imaged.