mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining, by an apparatus, whether first allocation information has been transmitted from the apparatus towards a second device in a wireless communication system; and transmitting, by the apparatus, a message comprising transmittal information and second allocation information from the apparatus towards the second device , wherein the transmittal information corresponds to the determined transmittal of the first allocation information. determining, by an apparatus, whether first allocation information has been transmitted from the apparatus towards a second device in a wireless communication system; and transmitting, by the apparatus, a message comprising transmittal information and second allocation information from the apparatus towards the second device , wherein the transmittal information corresponds to the determined transmittal of the first allocation information.
Method for resistance welding, wherein welding processes are carried out , in the course of which, in each case in accordance with predefined welding parameters, welding electrodes are pressed against a welding spot of workpieces and are energized with a welding current , wherein, in the course of these welding processes, in each case at least one characteristic value that characterizes a quality of the welding is determined , wherein, after a number of welding processes which have been carried out, a statistical analysis of the determined characteristic values is carried out and wherein, in dependence on a result of this statistical analysis, it is determined whether an adaptation of the predefined welding parameters is carried out , characterized in that the statistical analysis is carried out in dependence on a median (Øt) and a dispersion (σ) of spattering times at which in each case welding spatter occurs during a respective welding process , and the statistical analysis is carried out in dependence on a difference between the median (Øt) of the spattering times and a product of the standard deviation (σ) of the spattering times and a predefinable constant . wherein, in dependence on a result of this statistical analysis, it is determined whether an adaptation of the predefined welding parameters is carried out , characterized in that the statistical analysis is carried out in dependence on a median (Øt) and a dispersion (σ) of spattering times at which in each case welding spatter occurs during a respective welding process , and the statistical analysis is carried out in dependence on a difference between the median (Øt) of the spattering times and a product of the standard deviation (σ) of the spattering times and a predefinable constant .
A system to detect impending cardiac decompensation of a patient, the system comprising: an adherent patch comprising: a breathable tape , gel , electrodes , and circuitry configured to measure an electrocardiogram signal and an impedance signal of the patient via the electrodes, wherein the circuitry comprises a local processor comprising a tangible medium, the local processor configured to determine an incidence of cardiac arrhythmias from the electrocardiogram signal; and a processor system configured to determine a risk of impending decompensation based on the incidence of cardiac arrhythmias and the impedance signal, the processor system comprising the local processor . an adherent patch comprising: a breathable tape , gel , electrodes , and circuitry configured to measure an electrocardiogram signal and an impedance signal of the patient via the electrodes, wherein the circuitry comprises a local processor comprising a tangible medium, the local processor configured to determine an incidence of cardiac arrhythmias from the electrocardiogram signal; and a breathable tape , gel , electrodes , and circuitry configured to measure an electrocardiogram signal and an impedance signal of the patient via the electrodes, wherein the circuitry comprises a local processor comprising a tangible medium, the local processor configured to determine an incidence of cardiac arrhythmias from the electrocardiogram signal; and a processor system configured to determine a risk of impending decompensation based on the incidence of cardiac arrhythmias and the impedance signal, the processor system comprising the local processor .
Method of identifying the magnetic saturation parameters of an asynchronous electric motor (M), characterized in that it consists in implementing a sequence comprising one or more iterations, each iteration being defined with a rank i, with i ranging from 1 to n, each iteration of rank i when i is greater than or equal to 2 comprising the following steps: a) Applying a trajectory to a reference voltage or to a reference flux, over a reference range (PLref_i) having a voltage or flux amplitude between a minimum value and a maximum value, b) Acquiring the values of the currents ( i a , i b and i c ) in the phases of the electric motor and determining the corresponding magnetization current, c) Estimating the magnetization flux ( φ̂ ), d) Constructing an actual profile for the iteration of rank i comprising said estimated magnetization flux according to the measured magnetization current, e) Determining the magnetic saturation parameters corresponding to the actual profile of the iteration of rank i, f) Determining a deviation ( E r_i ) between said actual profile for the iteration of rank i and a theoretical profile constructed from the magnetic saturation parameters obtained during the iteration of rank i-1, g) Validating the magnetic saturation parameters obtained during the iteration of rank i when said deviation is less than a threshold ( E rmax ) and when the reference range (PLref_i) applied at the input has a sufficient amplitude. a) Applying a trajectory to a reference voltage or to a reference flux, over a reference range (PLref_i) having a voltage or flux amplitude between a minimum value and a maximum value, b) Acquiring the values of the currents ( i a , i b and i c ) in the phases of the electric motor and determining the corresponding magnetization current, c) Estimating the magnetization flux ( φ̂ ), d) Constructing an actual profile for the iteration of rank i comprising said estimated magnetization flux according to the measured magnetization current, e) Determining the magnetic saturation parameters corresponding to the actual profile of the iteration of rank i, f) Determining a deviation ( E r_i ) between said actual profile for the iteration of rank i and a theoretical profile constructed from the magnetic saturation parameters obtained during the iteration of rank i-1, g) Validating the magnetic saturation parameters obtained during the iteration of rank i when said deviation is less than a threshold ( E rmax ) and when the reference range (PLref_i) applied at the input has a sufficient amplitude.
A rainwater runoff contaminant filtration apparatus comprising: a body in which rainwater runoff is introduced into an opening whose top end is opened and the rainwater runoff is discharged to an outlet formed on one side surface of a lower portion thereof; a filtering unit located inside the body and filtering the rainwater runoff introduced into the opening ; a collecting unit connected to the filtering unit , collecting the rainwater runoff, and providing the collected rainwater runoff to an inner portion of the filtering unit ; a connection sensing unit including a spring cylinder to connect the filtering unit and the collecting unit to each other and sensing a weight of the filtering unit on the basis of reciprocation of the spring cylinder ; and a communication unit transmitting the weight of the filtering unit sensed by the connection sensing unit to the outside, wherein the connection sensing unit includes a contactless sensor located at an outer portion of the spring cylinder and a magnet located at an inner portion of the spring cylinder and moving in accordance with movement of the spring cylinder , and the communication unit transmits a signal generated by the contactless sensor sensing the magnet to the outside. a body in which rainwater runoff is introduced into an opening whose top end is opened and the rainwater runoff is discharged to an outlet formed on one side surface of a lower portion thereof; a filtering unit located inside the body and filtering the rainwater runoff introduced into the opening ; a collecting unit connected to the filtering unit , collecting the rainwater runoff, and providing the collected rainwater runoff to an inner portion of the filtering unit ; a connection sensing unit including a spring cylinder to connect the filtering unit and the collecting unit to each other and sensing a weight of the filtering unit on the basis of reciprocation of the spring cylinder ; and a communication unit transmitting the weight of the filtering unit sensed by the connection sensing unit to the outside, wherein the connection sensing unit includes a contactless sensor located at an outer portion of the spring cylinder and a magnet located at an inner portion of the spring cylinder and moving in accordance with movement of the spring cylinder , and the communication unit transmits a signal generated by the contactless sensor sensing the magnet to the outside.
System for supplying a fluid to an evaporator of a refrigeration unit , the system having a first conduit , which can be connected to a fluid inlet of the evaporator , a second conduit , which can be connected to the fluid inlet of the evaporator , an expansion valve with a continuously modifiable first flow cross section, wherein the expansion valve is disposed in the first conduit in such a manner that the continuously modifiable first flow cross section can be used to set a first mass flow of the fluid through the first conduit continuously, a shut-off device , which is disposed in the second conduit , wherein the shut-off device can be switched discretely between an open position and a closed position, wherein a second mass flow of the fluid can be conveyed through the second conduit when the shut-off device is in the open position and a fluid flow through the second conduit is prevented when the shut-off device is in the closed position, a throttle with a constant second flow cross section, wherein the throttle is disposed in the second conduit in such a manner that the second mass flow can be conveyed through the second flow cross section when the shut-off device is in the open position, and a control unit , which is set up so that a continuous modification of the first flow cross section of the expansion valve can be controlled wherein the control unit is set up such that the shut-off device can be controlled as a function of the first flow cross section such that when the shut-off device is in the open position the second mass flow of the fluid flows through the second conduit and when the shut-off device is in the closed position the fluid flow through the second conduit is prevented, characterised in that the expansion valve is set up to measure the set first flow cross section and to transfer information about the measured first flow cross section to the control unit , and the expansion valve has an induction measuring facility, wherein the induction measuring facility measures the first flow cross section of the expansion valve by means of induction measurement.
Assembly intended to be mounted on a structure of a means of transport , and comprising: - a duct in the form of a hollow tubular body, of longitudinal axis X, an internal volume of which defines a receiving zone for at least one cluster of cables , said duct being flexible and comprising a longitudinal slot , said duct comprising a longitudinal base , - a plurality of attachment lugs rigidly connected to the duct , said attachment lugs being intended to be assembled to the structure , wherein: - the assembly comprises, at longitudinal edges of the duct , situated on either side of the longitudinal slot , a pair of through-holes with one through-hole per longitudinal edge, - the receiving zone is compartmentalised into two longitudinal channels by a longitudinal separator , said longitudinal separator extending from the longitudinal base towards the longitudinal slot, said longitudinal separator comprising a through-hole , in the same cross section as the pair of through-holes of the duct, - the assembly comprises a clamping element configured to be inserted in a pair of through-holes of the duct and in the through-hole of the longitudinal separator . - a duct in the form of a hollow tubular body, of longitudinal axis X, an internal volume of which defines a receiving zone for at least one cluster of cables , said duct being flexible and comprising a longitudinal slot , said duct comprising a longitudinal base , - a plurality of attachment lugs rigidly connected to the duct , said attachment lugs being intended to be assembled to the structure , - the assembly comprises, at longitudinal edges of the duct , situated on either side of the longitudinal slot , a pair of through-holes with one through-hole per longitudinal edge, - the receiving zone is compartmentalised into two longitudinal channels by a longitudinal separator , said longitudinal separator extending from the longitudinal base towards the longitudinal slot, said longitudinal separator comprising a through-hole , in the same cross section as the pair of through-holes of the duct, - the assembly comprises a clamping element configured to be inserted in a pair of through-holes of the duct and in the through-hole of the longitudinal separator .
An additive manufacturing method comprising: defining, by a computing device , a digital representation of an inclined channel within an additively manufactured component , including an angle θ, based on a formula θ = 2 tan -1 [tan(λ/2)/sin(α)], the angle λ, and the angle α, wherein the inclined channel defines a longitudinal axis inclined at the angle α relative to a build direction of the component , wherein the digital representation of the inclined channel includes a gabled roof configured to collapse into an arched roof , wherein the angle λ is a predetermined interior angle of the gabled roof measured in a plane substantially parallel to the build direction , and wherein the angle θ is an interior angle of the gabled roof in a plane substantially normal to the inclined longitudinal axis ; and controlling, by the computing device , based on the digital representation , an additive manufacturing tool to deposit a material along the build direction to fabricate the component including the inclined channel having a geometry defined by the angles θ, λ, and α. defining, by a computing device , a digital representation of an inclined channel within an additively manufactured component , including an angle θ, based on a formula θ = 2 tan -1 [tan(λ/2)/sin(α)], the angle λ, and the angle α, wherein the inclined channel defines a longitudinal axis inclined at the angle α relative to a build direction of the component , wherein the digital representation of the inclined channel includes a gabled roof configured to collapse into an arched roof , wherein the angle λ is a predetermined interior angle of the gabled roof measured in a plane substantially parallel to the build direction , and wherein the angle θ is an interior angle of the gabled roof in a plane substantially normal to the inclined longitudinal axis ; and controlling, by the computing device , based on the digital representation , an additive manufacturing tool to deposit a material along the build direction to fabricate the component including the inclined channel having a geometry defined by the angles θ, λ, and α.
A method of operating a user equipment, UE , in a wireless communication network, the method comprising: receiving, by the UE , a configuration of at least one resource region usable for transmission of an enhanced physical downlink control channel, E-PDCCH; and detecting, by the UE , in each of a plurality of subframes, one or more E-PDCCHs for the UE over the configured at least one E-PDCCH resource region ; wherein the detecting comprises identifying a plurality of E-PDCCH candidates in the at least one E-PDCCH resource region , and wherein an E-PDCCH candidate comprises one or more enhanced control channel elements, eCCEs, in the at least one E-PDCCH resource region usable for transmitting the E- PDCCH to the UE ; and wherein the detecting further comprises identifying a demodulation reference signal associated with each eCCE of at least one of the plurality of E- PDCCH candidates receiving, by the UE , a configuration of at least one resource region usable for transmission of an enhanced physical downlink control channel, E-PDCCH; and detecting, by the UE , in each of a plurality of subframes, one or more E-PDCCHs for the UE over the configured at least one E-PDCCH resource region ; wherein the detecting comprises identifying a plurality of E-PDCCH candidates in the at least one E-PDCCH resource region , and wherein an E-PDCCH candidate comprises one or more enhanced control channel elements, eCCEs, in the at least one E-PDCCH resource region usable for transmitting the E- PDCCH to the UE ; and wherein the detecting further comprises identifying a demodulation reference signal associated with each eCCE of at least one of the plurality of E- PDCCH candidates
A hypotonic formulation comprising mucus penetrating nanoparticles, the nanoparticles comprising: a mucus penetration enhancing coating which enhances diffusion of the nanoparticles through mucus, the coating comprising a polyethylene glycol (PEG) or a block copolymer containing PEG; and a therapeutic, prophylactic or diagnostic agent; wherein the surface density of the mucus penetration enhancing coating on the nanoparticles as measured by 1H NMR is from 0.05 to 100 chains per nm 2 ; and wherein the nanoparticles possess a ζ-potential of between 10 mV and -10 mV when suspended in 10 mM NaCl solution, for administration to a mucosal tissue, in an excipient which is hypotonic for the mucosal epithelium to which it is delivered, resulting in the rapid transport of the mucus penetrating nanoparticles to the epithelial surface. a mucus penetration enhancing coating which enhances diffusion of the nanoparticles through mucus, the coating comprising a polyethylene glycol (PEG) or a block copolymer containing PEG; and a therapeutic, prophylactic or diagnostic agent; wherein the surface density of the mucus penetration enhancing coating on the nanoparticles as measured by 1H NMR is from 0.05 to 100 chains per nm 2 ; and wherein the nanoparticles possess a ζ-potential of between 10 mV and -10 mV when suspended in 10 mM NaCl solution, for administration to a mucosal tissue, in an excipient which is hypotonic for the mucosal epithelium to which it is delivered, resulting in the rapid transport of the mucus penetrating nanoparticles to the epithelial surface.
A sensor (1;1A;1B) comprising: a body member (132;132P) that has a flat plate-like shape, a first end in a first direction orthogonal to a thickness direction of the body member being supported, and a storage space; the storage space opening at at least one of end faces of the body member in the thickness direction, a volume change body , whose volume changes depending on an amount of a target, that is supported by the body member (132;132P) so that at least a part of the volume change body is stored in the storage space; and a detection member that is in contact with a second end in the first direction of the body member (132;132P) and detects stress caused by the change in the volume of the volume change body . a body member (132;132P) that has a flat plate-like shape, a first end in a first direction orthogonal to a thickness direction of the body member being supported, and a storage space; the storage space opening at at least one of end faces of the body member in the thickness direction, a volume change body , whose volume changes depending on an amount of a target, that is supported by the body member (132;132P) so that at least a part of the volume change body is stored in the storage space; and a detection member that is in contact with a second end in the first direction of the body member (132;132P) and detects stress caused by the change in the volume of the volume change body .
A composition comprising: a sunscreening agent consisting essentially of palythine, or salts thereof, in an amount of 0.3% to 25% by weight.
Method for cooling an electrical aircraft propulsion system, comprising the steps of: - decreasing the temperature of a portion of a coolant below an operating temperature, acting this portion of the coolant as a thermal buffer, and - maintaining the rest of the coolant at said operation temperature, characterized in that the decreasing the temperature of a portion of a coolant below an operating temperature is made before the taking-off of the aircraft, and this portion of the coolant acts as a thermal buffer during the taking-off of the aircraft. - decreasing the temperature of a portion of a coolant below an operating temperature, acting this portion of the coolant as a thermal buffer, and - maintaining the rest of the coolant at said operation temperature,
A system for aseptically filling pharmaceutical containers with pharmaceutical fluid, the system comprising: an aseptically sealable chamber , wherein the aseptically sealable chamber includes a transfer wall including a plurality of openings each providing a sealing surface being aseptically sealable to a container, a robotic arm disposed within the sealable chamber and having a range of motion that allows it to move a fluid transfer conduit to each of the openings, a fluid transfer actuator to drive fluid through the fluid transfer conduit, a controller that includes: three-dimensional arm control logic to move the fluid transfer conduit to a selected container that sealably passes through one of the openings, and fluid transfer actuation logic to operate the fluid transfer actuator to transfer fluid between a fluid transfer vessel and the selected container, and a sterilizing facility for establishing an aseptic condition within the sealable chamber. an aseptically sealable chamber , wherein the aseptically sealable chamber includes a transfer wall including a plurality of openings each providing a sealing surface being aseptically sealable to a container, a robotic arm disposed within the sealable chamber and having a range of motion that allows it to move a fluid transfer conduit to each of the openings, a fluid transfer actuator to drive fluid through the fluid transfer conduit, a controller that includes: three-dimensional arm control logic to move the fluid transfer conduit to a selected container that sealably passes through one of the openings, and fluid transfer actuation logic to operate the fluid transfer actuator to transfer fluid between a fluid transfer vessel and the selected container, and three-dimensional arm control logic to move the fluid transfer conduit to a selected container that sealably passes through one of the openings, and fluid transfer actuation logic to operate the fluid transfer actuator to transfer fluid between a fluid transfer vessel and the selected container, and a sterilizing facility for establishing an aseptic condition within the sealable chamber.