mhurhangee/patent-ind-claim-en huggingface dataset:
A method of configuring ultrasonic fluid flow meters comprising: receiving, by a processor, an input signal associated with a measurement signal recorded by an ultrasonic fluid flow meter mounted on a structure defining a lumen , the measurement signal representing an ultrasonic signal propagating through fluid flowing in the lumen , characterized in that it is further comprising: determining, by the processor, a whitening frequency band based on the input signal; constructing, by the processor, a whitening filter based on the whitening frequency band and the input signal; generating, by the processor, a reference signal by filtering the input signal using the whitening filter; and providing, by the processor, representations of the whitening filter and the reference signal to the fluid flow meter for use in estimating fluid flow rates based on ultrasonic signals measured by the fluid flow meter , the fluid flow meter configured to filter a measured ultrasonic signal using the whitening filter and cross correlate the filtered ultrasonic signal with the reference signal to estimate a time shift associated with the measured ultrasonic signal. receiving, by a processor, an input signal associated with a measurement signal recorded by an ultrasonic fluid flow meter mounted on a structure defining a lumen , the measurement signal representing an ultrasonic signal propagating through fluid flowing in the lumen , characterized in that it is further comprising: determining, by the processor, a whitening frequency band based on the input signal; constructing, by the processor, a whitening filter based on the whitening frequency band and the input signal; generating, by the processor, a reference signal by filtering the input signal using the whitening filter; and providing, by the processor, representations of the whitening filter and the reference signal to the fluid flow meter for use in estimating fluid flow rates based on ultrasonic signals measured by the fluid flow meter , the fluid flow meter configured to filter a measured ultrasonic signal using the whitening filter and cross correlate the filtered ultrasonic signal with the reference signal to estimate a time shift associated with the measured ultrasonic signal. determining, by the processor, a whitening frequency band based on the input signal; constructing, by the processor, a whitening filter based on the whitening frequency band and the input signal; generating, by the processor, a reference signal by filtering the input signal using the whitening filter; and providing, by the processor, representations of the whitening filter and the reference signal to the fluid flow meter for use in estimating fluid flow rates based on ultrasonic signals measured by the fluid flow meter , the fluid flow meter configured to filter a measured ultrasonic signal using the whitening filter and cross correlate the filtered ultrasonic signal with the reference signal to estimate a time shift associated with the measured ultrasonic signal.
A spent nuclear fuel canister , comprising: a main body having one end that is opened and an internal space in which the spent nuclear fuel is mounted; a cover mounted on the opened one end of the main body and fixed to the main body ; a first screw ridge formed on an inner side surface at one end of the main body ; and a second screw ridge located on an outer side surface of the cover and configured to be fastened with the first screw ridge due to a rotation of the cover , characterised in that coefficients of thermal expansion of the first screw ridge and the second screw ridge are greater than those of the main body and the cover , respectively. a main body having one end that is opened and an internal space in which the spent nuclear fuel is mounted; a cover mounted on the opened one end of the main body and fixed to the main body ; a first screw ridge formed on an inner side surface at one end of the main body ; and a second screw ridge located on an outer side surface of the cover and configured to be fastened with the first screw ridge due to a rotation of the cover , characterised in that coefficients of thermal expansion of the first screw ridge and the second screw ridge are greater than those of the main body and the cover , respectively.
A method for a node for electing a coordination node in a Coordinated Multipoint , CoMP, set of cooperating nodes for receiving channel information from a plurality of wireless devices operating in a wireless network , the method comprising: determining a channel quality parameter for the node indicative of a channel quality between the node , and the plurality of wireless devices ; characterized in that the method further comprises: receiving a first message from a first neighbor node in the CoMP set, the first message including a channel quality parameter for another node in the CoMP set indicative of a channel quality between the other node and the plurality of wireless devices ; and sending a second message to the first neighbor node in the CoMP set, the second message identifying the coordination node elected by the node based on the channel quality parameters for the node and the other node . receiving a first message from a first neighbor node in the CoMP set, the first message including a channel quality parameter for another node in the CoMP set indicative of a channel quality between the other node and the plurality of wireless devices ; and sending a second message to the first neighbor node in the CoMP set, the second message identifying the coordination node elected by the node based on the channel quality parameters for the node and the other node .
An error indication processing method for ensuring consistency between contexts of an access node and a second user plane network element communicating via tunnel based communication, wherein the method comprises: receiving (S104), by a forwarding node, an error indication message sent by the access node, wherein the error indication message comprises a tunnel endpoint identifier TEID of the access node and an Internet Protocol IP address of the access node, and a TEID in a tunneling protocol header in the error indication message has been set to identify an invalid TEID; and sending, (S105) by the forwarding node, the error indication message to a first user plane network element in response to the invalid TEID, wherein the error indication message is used to instruct the first user plane network element to send an error notification message to a control plane network element, wherein the error indication message is a message sent by the access node to the forwarding node after the access node receives a service data packet sent by the second user plane network element, but does not find a context corresponding to the TEID of the access node and the IP address of the access node; wherein the service data packet comprises the TEID of the access node and the IP address of the access node. receiving (S104), by a forwarding node, an error indication message sent by the access node, wherein the error indication message comprises a tunnel endpoint identifier TEID of the access node and an Internet Protocol IP address of the access node, and a TEID in a tunneling protocol header in the error indication message has been set to identify an invalid TEID; and sending, (S105) by the forwarding node, the error indication message to a first user plane network element in response to the invalid TEID, wherein the error indication message is used to instruct the first user plane network element to send an error notification message to a control plane network element, wherein the error indication message is a message sent by the access node to the forwarding node after the access node receives a service data packet sent by the second user plane network element, but does not find a context corresponding to the TEID of the access node and the IP address of the access node; wherein the service data packet comprises the TEID of the access node and the IP address of the access node.
A paint baking method comprising: - preparing a paint baking oven , with the oven comprising an oven body and a hot air supplier , the hot air supplier supplying hot air into the oven body ; and - baking a wet coating film applied to a vehicle body (B) while conveying the vehicle body (B), with the vehicle body (B): - having a main shell body (B1) to which a lid part (D) is attached via a hinge (H), and - including a body exterior part and a coated surface of the main shell body (B1) and the lid part (D) adjacent to the hinge (H), characterized in that - the wet coating film is formed by a thermoset paint, and - baking the wet coating film applied to the vehicle body (B) includes: - first and at an upstream side of the oven body blowing the hot air only toward the coated surface in a state in which the lid part (D) is fully opened with a first, larger angle, to locally bake a coating film applied to the coated surface adjacent to the hinge (H), and - then afterwards and at a downstream side of the oven body blowing the hot air to the whole vehicle body (B) in a state in which the lid part (D) is slightly opened with a second, smaller angle, to bake the coating film applied to the vehicle body (B). - preparing a paint baking oven , with the oven comprising an oven body and a hot air supplier , the hot air supplier supplying hot air into the oven body ; and - baking a wet coating film applied to a vehicle body (B) while conveying the vehicle body (B), with the vehicle body (B): - having a main shell body (B1) to which a lid part (D) is attached via a hinge (H), and - including a body exterior part and a coated surface of the main shell body (B1) and the lid part (D) adjacent to the hinge (H), characterized in that - having a main shell body (B1) to which a lid part (D) is attached via a hinge (H), and - including a body exterior part and a coated surface of the main shell body (B1) and the lid part (D) adjacent to the hinge (H), - the wet coating film is formed by a thermoset paint, and - baking the wet coating film applied to the vehicle body (B) includes: - first and at an upstream side of the oven body blowing the hot air only toward the coated surface in a state in which the lid part (D) is fully opened with a first, larger angle, to locally bake a coating film applied to the coated surface adjacent to the hinge (H), and - then afterwards and at a downstream side of the oven body blowing the hot air to the whole vehicle body (B) in a state in which the lid part (D) is slightly opened with a second, smaller angle, to bake the coating film applied to the vehicle body (B). - first and at an upstream side of the oven body blowing the hot air only toward the coated surface in a state in which the lid part (D) is fully opened with a first, larger angle, to locally bake a coating film applied to the coated surface adjacent to the hinge (H), and - then afterwards and at a downstream side of the oven body blowing the hot air to the whole vehicle body (B) in a state in which the lid part (D) is slightly opened with a second, smaller angle, to bake the coating film applied to the vehicle body (B).
Electronic component with a high electron mobility heterojunction , comprising: - a first layer of semiconductor material superimposed on a second layer of semiconductor material , in a manner such as to form an electron gas layer in the proximity of the interface between the first and second layers of semiconductor material; - first and second metallic contacts of conduction electrodes formed on said second layer of semiconductor material vertically with respect to the electron gas layer; characterized in that : - at least one of said first and second metallic contacts has a contact length L such that L≤ 1.5 * √(ρc/R2Deg); in which pc is the specific resistance of said metallic contact with the electron gas layer at 425K, in which R2Deg is the sheet resistance in the electron gas layer at 425K. - a first layer of semiconductor material superimposed on a second layer of semiconductor material , in a manner such as to form an electron gas layer in the proximity of the interface between the first and second layers of semiconductor material; - first and second metallic contacts of conduction electrodes formed on said second layer of semiconductor material vertically with respect to the electron gas layer; - at least one of said first and second metallic contacts has a contact length L such that L≤ 1.5 * √(ρc/R2Deg);
System for the optical detection of objects by means of laser triangulation, comprising a source for generating light of a first wavelength, wherein the source is configured to illuminate the object by the light, wherein the illumination is distorted by the object , at least one color light source for generating color light of a second wavelength, wherein the color light source is configured to illuminate the object by the color light of the color light source , wherein the first wavelength is different from the second wavelength, a first sensor for detecting the object illuminated by the light of the source for determining height information about the object, and a second sensor for detecting the color light generated by the color light source and reflected by the object for determining color information about the object, wherein the source is a line laser, wherein the illumination by the color light source is effected in a plane identical to the illumination by the line laser .
A progesterone measuring kit, comprising: a first particle having a label and modified with a first binding substance capable of specifically binding to progesterone; a second particle having no label and modified with a second binding substance incapable of specifically binding to progesterone; a flow channel for flowing the first particle and the second particle; and a substrate having a substance capable of binding to the first binding substance, wherein the first particle having a label contains at least one compound represented by Formula and a particle, and an average particle diameter of the first particles is 50 to 250 nm, an average particle diameter of the second particles is 70 to 500 nm, and the average particle diameter of the second particles is larger than the average particle diameter of the first particles, in the formula, R 11 and R 15 each independently represent an alkyl group or an aryl group, each of which may have a substituent; R 12 and R 14 each independently represent an alkyl group which may have a substituent; R 13 represents an aryl group which may have a substituent; X 1 and X 2 each independently represent a fluorine atom; Ar 1 and Ar 2 each independently represent an aryl group, each of which may have a substituent; and L 1 and L 2 each independently represent Formulae (L-1) or (L-2), a first particle having a label and modified with a first binding substance capable of specifically binding to progesterone; a second particle having no label and modified with a second binding substance incapable of specifically binding to progesterone; a flow channel for flowing the first particle and the second particle; and a substrate having a substance capable of binding to the first binding substance, wherein the first particle having a label contains at least one compound represented by Formula and a particle, and an average particle diameter of the first particles is 50 to 250 nm, an average particle diameter of the second particles is 70 to 500 nm, and the average particle diameter of the second particles is larger than the average particle diameter of the first particles, in the formula, R 11 and R 15 each independently represent an alkyl group or an aryl group, each of which may have a substituent; R 12 and R 14 each independently represent an alkyl group which may have a substituent; R 13 represents an aryl group which may have a substituent; X 1 and X 2 each independently represent a fluorine atom; Ar 1 and Ar 2 each independently represent an aryl group, each of which may have a substituent; and L 1 and L 2 each independently represent Formulae (L-1) or (L-2),
A method for preparing L-cysteine hydrochloride hydrate crystals, comprising: (a) obtaining a separated liquid after introducing a fermentation broth which has a pH range of 3.0 to 9.0 and containing L-cysteine into a continuous chromatography apparatus having a strongly acidic cation-exchange resin as a stationary phase; (b) adding hydrochloric acid to the separated liquid such that the equivalence ratio ([HCl]/[L-cysteine]) of hydrochloric acid to L-cysteine is from 0.9 to 3.0; (c) concentrating the separated liquid to which hydrochloric acid is added; and (d) recovering L-cysteine hydrochloride hydrate crystals from the concentrate; wherein the strongly acidic cation-exchange resin in step (a) has a sulfonic acid functional group; and wherein in step (a) the continuous chromatography process does not comprise adsorption / elution of L-cysteine. (a) obtaining a separated liquid after introducing a fermentation broth which has a pH range of 3.0 to 9.0 and containing L-cysteine into a continuous chromatography apparatus having a strongly acidic cation-exchange resin as a stationary phase; (b) adding hydrochloric acid to the separated liquid such that the equivalence ratio ([HCl]/[L-cysteine]) of hydrochloric acid to L-cysteine is from 0.9 to 3.0; (c) concentrating the separated liquid to which hydrochloric acid is added; and (d) recovering L-cysteine hydrochloride hydrate crystals from the concentrate; wherein the strongly acidic cation-exchange resin in step (a) has a sulfonic acid functional group; and wherein in step (a) the continuous chromatography process does not comprise adsorption / elution of L-cysteine.
A method for initiating multi-Subscriber Identity Module, SIM, functionality between a first mobile device and a second mobile device , wherein multi-SIM functionality associates the first mobile device and the second mobile device with a shared telephone number, the method comprising: by the first mobile device: providing , to a cellular communication network, an identifier of the first mobile device and an identifier of the second mobile device; requesting initiation by the cellular communication network of multi-SIM functionality for the first mobile device and the second mobile device; receiving , from the cellular communication network, an indication that the multi-SIM functionality has been initiated for the first mobile device and the second mobile device; characterized by providing , by the first mobile device, to the second mobile device, an instruction to download an embedded SIM, eSIM, to be provisioned to the second mobile device, wherein the eSIM is configured to support the multi-SIM functionality, wherein providing the instruction is performed by the first mobile device in response to receiving the indication that the multi-SIM functionality has been initiated for the first mobile device and the second mobile device. providing , to a cellular communication network, an identifier of the first mobile device and an identifier of the second mobile device; requesting initiation by the cellular communication network of multi-SIM functionality for the first mobile device and the second mobile device; receiving , from the cellular communication network, an indication that the multi-SIM functionality has been initiated for the first mobile device and the second mobile device; characterized by providing , by the first mobile device, to the second mobile device, an instruction to download an embedded SIM, eSIM, to be provisioned to the second mobile device, wherein the eSIM is configured to support the multi-SIM functionality, wherein providing the instruction is performed by the first mobile device in response to receiving the indication that the multi-SIM functionality has been initiated for the first mobile device and the second mobile device.
Surgical clip , comprising a first clamping arm , a second clamping arm and a biasing element , which first clamping arm defines a first clamping surface , which second clamping arm defines a second clamping surface , and which biasing element holds the first clamping surface and the second clamping surface against each other in a basic position, in particular under bias, wherein the first and second clamping arms are pivotable against each other against the action of the biasing element , wherein the biasing element is configured in the form of a coil spring which defines a coil spring longitudinal axis and has a first coil spring end and a second coil spring end , wherein the coil spring comprises between the first coil spring end and the second coil spring end at least one winding extending over a circumferential angle of more than 360°, wherein the first coil spring end is connected to the first clamping arm via a first connecting section , wherein the second coil spring end is connected to the second clamping arm via a second connecting section , characterized in that the at least one winding comprises at least one first planar winding section and at least one second planar winding section , and in that the at least one first winding section defines a first winding section plane , and/or in that the at least one second winding section defines a second winding section plane , and in that the at least one first winding section and the at least one second winding section are connected to one another via a cranked section remote from the first coil spring end and from the second coil spring end .
Method for locating partial discharges in electrical cables by means of a high-voltage source that is coupled to the cable to be tested, a decoupling unit that is connected to one end of the cable , and a data processing system that is connected to the decoupling unit via a sensor unit and determines a partial discharge or partial discharges , when present, from the sensor signals, characterised - in that events, if present, are identified as pulses from the sensor signals by means of a trigger having a threshold value that is dependent on the interference level, - in that the events that are identified as pulses are parameterised, parameters being the instant of the start of the pulse , the instant of the end of the pulse , the amplitude of the pulse , the instant of the amplitude of the pulse , the pulse width, the lower cutoff frequency of the pulse and the upper cutoff frequency of the pulse , - in that pairs of events that are identified as pulses and parameterised are formed, - in that the event pairs are classified, the pulses that represent the event pairs being classified according to the differential time, the amplitude, the polarity, the amplitude attenuation, the pulse width, the pulse width dispersion, the cutoff frequency or a combination thereof and the cable attenuation as a feature in each case, - in that a partial discharge is assigned from the classification, and - in that the location of the partial discharge/s is determined from the difference in transit times between said partial discharge and the associated reflection thereof. - in that events, if present, are identified as pulses from the sensor signals by means of a trigger having a threshold value that is dependent on the interference level, - in that the events that are identified as pulses are parameterised, parameters being the instant of the start of the pulse , the instant of the end of the pulse , the amplitude of the pulse , the instant of the amplitude of the pulse , the pulse width, the lower cutoff frequency of the pulse and the upper cutoff frequency of the pulse , - in that pairs of events that are identified as pulses and parameterised are formed, - in that the event pairs are classified, the pulses that represent the event pairs being classified according to the differential time, the amplitude, the polarity, the amplitude attenuation, the pulse width, the pulse width dispersion, the cutoff frequency or a combination thereof and the cable attenuation as a feature in each case, - in that a partial discharge is assigned from the classification, and - in that the location of the partial discharge/s is determined from the difference in transit times between said partial discharge and the associated reflection thereof.