mhurhangee/patent-ind-claim-en huggingface dataset:
A position detection method which detects, in a surface plasmon-field enhanced fluorescence spectroscopy detection system or a surface plasmon resonance detection system which detects a sample by irradiating a sensor chip with excitation light (α), the sensor chip provided with: a dielectric member ; a metal film formed on an upper surface of the dielectric member ; and a sample solution holding member arranged on an upper surface of the metal film , a relative position between the dielectric member and the sample solution holding member , the position detection method comprising steps of: irradiating a side of the sensor chip with measurement light while changing a distance between the sensor chip and a measurement light irradiation unit emitting the measurement light by conveying the sensor chip in a horizontal direction and detecting reflected light (β) traveling in a predetermined direction out of the reflected light (β) generated when the measurement light is reflected by the sensor chip ; and detecting the relative position between the dielectric member and the sample solution holding member on the basis of a change in an intensity of the detected reflected light (β) as a function of the distance between the sensor chip and the measurement light irradiation unit. a dielectric member ; a metal film formed on an upper surface of the dielectric member ; and a sample solution holding member arranged on an upper surface of the metal film , a relative position between the dielectric member and the sample solution holding member , the position detection method comprising steps of: irradiating a side of the sensor chip with measurement light while changing a distance between the sensor chip and a measurement light irradiation unit emitting the measurement light by conveying the sensor chip in a horizontal direction and detecting reflected light (β) traveling in a predetermined direction out of the reflected light (β) generated when the measurement light is reflected by the sensor chip ; and detecting the relative position between the dielectric member and the sample solution holding member on the basis of a change in an intensity of the detected reflected light (β) as a function of the distance between the sensor chip and the measurement light irradiation unit. irradiating a side of the sensor chip with measurement light while changing a distance between the sensor chip and a measurement light irradiation unit emitting the measurement light by conveying the sensor chip in a horizontal direction and detecting reflected light (β) traveling in a predetermined direction out of the reflected light (β) generated when the measurement light is reflected by the sensor chip ; and detecting the relative position between the dielectric member and the sample solution holding member on the basis of a change in an intensity of the detected reflected light (β) as a function of the distance between the sensor chip and the measurement light irradiation unit.
A device for arranging a marking around an elongate object , preferably around a conductor, comprising: a material interface configured to receive a print product output by a printer ; a print-signal interface (104; 158) configured to detect a control signal for the output of the print product ; a stop for limiting a longitudinal movement of the elongate object along a longitudinal axis in an end position of the elongate object relative to the device , preferably relative to a marking location ; and at least one actuator (120; 122) configured to, depending on the control signal for the output of the print product , arrange the marking using of the print product output by the printer around the elongate object in a circumferentially closed manner, wherein the elongate object can be arranged in the end position, characterized in that the stop is mounted pivotably about a pivot axis between a first pivot position and a second pivot position, and in that the stop in the first pivot position is capable of limiting the longitudinal movement of the elongate object along the longitudinal axis and in the second pivot position is arranged outside the longitudinal axis. a material interface configured to receive a print product output by a printer ; a print-signal interface (104; 158) configured to detect a control signal for the output of the print product ; a stop for limiting a longitudinal movement of the elongate object along a longitudinal axis in an end position of the elongate object relative to the device , preferably relative to a marking location ; and at least one actuator (120; 122) configured to, depending on the control signal for the output of the print product , arrange the marking using of the print product output by the printer around the elongate object in a circumferentially closed manner, wherein the elongate object can be arranged in the end position, characterized in that the stop is mounted pivotably about a pivot axis between a first pivot position and a second pivot position, and in that the stop in the first pivot position is capable of limiting the longitudinal movement of the elongate object along the longitudinal axis and in the second pivot position is arranged outside the longitudinal axis.
Method for monitoring a service deployed over a telecommunication network, comprising: - a step of receiving (S3) flows of data corresponding to metrics corresponding to said service; - a step of determining (S4) residuals of an application of said flows of data on at least two models previously trained on historical data, - a step of defining (S5) confidence intervals for said residuals; and, - a step of transmitting (S6) data related to anomalies detected on the base of said residuals and said confidence intervals, to external applications, - further comprising a step of cleaning (S1) said historical data and a step of training (S2) said at least two models on the cleaned data wherein said step of cleaning (S1) comprise a at least one of applying (S11) a logarithmic unit for said metrics, using a median smoothing method (S12) on said flows of data and applying (S13) a boxplot-based cleaning step on said flows of data, said boxplot-based cleaning step comprising defining a boxplot for said historical data, defined by a first quartile, Q1, being the middle number between the smallest number and the median number of said historical data, a second quartile, Q2, being the median for said historical data, and a third quartile, Q3, being the middle value between the median value and the highest value of said historical data; defining an IQR value as IQR=Q3-Q1, defining a lower whisker a as a=Q1-1.5xIQR, and an upper whisker b as b=Q3+1.5 ∗ IQR and correcting historical data by applying if x < a , x ← x 2 + a + Q 1 4 if x > b , x ← x 2 + b + Q 2 4 - a step of receiving (S3) flows of data corresponding to metrics corresponding to said service; - a step of determining (S4) residuals of an application of said flows of data on at least two models previously trained on historical data, - a step of defining (S5) confidence intervals for said residuals; and, - a step of transmitting (S6) data related to anomalies detected on the base of said residuals and said confidence intervals, to external applications, - further comprising a step of cleaning (S1) said historical data and a step of training (S2) said at least two models on the cleaned data
A half-spiral housing of a radial fan with an extension over 180° of a logarithmic spiral and with a pressure chamber extending in the circumferential direction around an axial intake opening to a radial exhaust opening , which pressure chamber, as viewed in the circumferential direction, is subdivided into at least one initial portion , one middle portion , and one exhaust portion, wherein the intake opening defines a central axis of rotation for a fan wheel, and wherein an average half-spiral housing radius, as viewed around the axis of rotation , varies in the initial portion , middle portion , and exhaust portion and reaches its maximum in the exhaust portion, the half-spiral housing radius in the middle portion being reduced in a region that defines a maximum height H(δ,z) of the half-spiral housing in the radial direction relative to a logarithmic spiral radius (r log ), characterized in that a radial extension of the pressure chamber in the region of the middle portion that defines the maximum height H(δ,z) of the half-spiral housing is reduced from a first axial side of the half-spiral housing to an oppositely situated second axial side of the half-spiral housing .
Filter device for a suction device of a textile machine which produces cross-wound bobbins, comprising an intermediate chamber connected to a vacuum source and a filter chamber which is divided into a main filter chamber and a reserve filter chamber having a filter element , wherein the main filter chamber can be pneumatically decoupled from the intermediate chamber and then a cleaning of the main filter chamber is possible, characterized in that an air inlet device is arranged in the region of the reserve filter chamber , which air inlet device corresponds to the ambient air and can be actuated in a defined manner, and which, if necessary, allows the filter element of the reserve filter chamber to be cleaned.
A holding device for a round dental blank , comprising: - an open ring element for laterally gripping around the dental blank ; and - a closing element for closing the ring element at various positions, characterized in that one end of the ring element comprises a first clamping geometry (127-1) for engaging a first tensioning mandrel (129-1) and the other end of the ring element comprises a second clamping geometry (127-2) for engaging a second tensioning mandrel (129-2). - an open ring element for laterally gripping around the dental blank ; and - a closing element for closing the ring element at various positions,
Component for a cutting or welding torch, the component comprising a ridge forming a thread for connecting the component to other parts of the cutting or welding torch, the thread having a pressure flank , a clearance flank , a root flat and a crest flat , wherein - an angle included by the pressure flank and the clearance flank is 60° or less, - an angle α included by the pressure flank and a plane perpendicular to the longitudinal axis of the thread is 40° to 50°, - an angle β included by the clearance flank and a plane perpendicular to the longitudinal axis of the thread is 0° to 20°, characterised in that - height (VZ) of the ridge is 0.4 times the pitch of the thread or less. - an angle included by the pressure flank and the clearance flank is 60° or less, - an angle α included by the pressure flank and a plane perpendicular to the longitudinal axis of the thread is 40° to 50°, - an angle β included by the clearance flank and a plane perpendicular to the longitudinal axis of the thread is 0° to 20°, characterised in that - height (VZ) of the ridge is 0.4 times the pitch of the thread or less.
A photonic interface assembly for an electronic circuit , the photonic interface assembly comprising: a first electrical port for receiving a first electrical signal from the electronic circuit , and a second electrical port for coupling a second electrical signal to the electronic circuit ; at least one optical fiber for outputting a first optical signal, receiving a second optical signal, or both outputting the first optical signal and receiving the second optical signal; a photonic integrated circuit comprising: an optical modulator for modulating an optical carrier wave with the first electrical signal to provide the first optical signal, and a photodetector for providing the second electrical signal in response to the second optical signal; and a fiber support attached to the photonic integrated circuit and supporting the at least one optical fiber ; a substrate for supporting the photonic integrated circuit ; and an optical gain chip mounted on the substrate and optically coupled to the optical modulator for providing the optical carrier wave. a first electrical port for receiving a first electrical signal from the electronic circuit , and a second electrical port for coupling a second electrical signal to the electronic circuit ; at least one optical fiber for outputting a first optical signal, receiving a second optical signal, or both outputting the first optical signal and receiving the second optical signal; a photonic integrated circuit comprising: an optical modulator for modulating an optical carrier wave with the first electrical signal to provide the first optical signal, and a photodetector for providing the second electrical signal in response to the second optical signal; and an optical modulator for modulating an optical carrier wave with the first electrical signal to provide the first optical signal, and a photodetector for providing the second electrical signal in response to the second optical signal; and a fiber support attached to the photonic integrated circuit and supporting the at least one optical fiber ; a substrate for supporting the photonic integrated circuit ; and an optical gain chip mounted on the substrate and optically coupled to the optical modulator for providing the optical carrier wave.
Method of generating white light pulses with a white light generation device , comprising the steps of: - coupling pump laser pulses along a pump light path into a white light generation crystal , - generating the white light pulses by an optically non-linear conversion of the pump laser pulses in the white light generation crystal , - detecting at least one pulse characteristic of at least one of the pump laser pulses and the white light pulses , wherein the at least one pulse characteristic is capable of indicating a normal working range of the white light generation crystal , and - controlling the white light generation device using a control loop device , wherein the white light generation device is adjusted in dependency on the at least one detected pulse characteristic, characterized in that - the step of controlling the white light generation device includes adjusting an axial focus position (z) of the pump laser pulses along the pump light path through the white light generation crystal in dependency on a deviation of the at least one pulse characteristic and at least one normal working range characteristic indicating the normal working range of the white light generation crystal . - coupling pump laser pulses along a pump light path into a white light generation crystal , - generating the white light pulses by an optically non-linear conversion of the pump laser pulses in the white light generation crystal , - detecting at least one pulse characteristic of at least one of the pump laser pulses and the white light pulses , wherein the at least one pulse characteristic is capable of indicating a normal working range of the white light generation crystal , and - controlling the white light generation device using a control loop device , wherein the white light generation device is adjusted in dependency on the at least one detected pulse characteristic, characterized in that - the step of controlling the white light generation device includes adjusting an axial focus position (z) of the pump laser pulses along the pump light path through the white light generation crystal in dependency on a deviation of the at least one pulse characteristic and at least one normal working range characteristic indicating the normal working range of the white light generation crystal .
A railway transportation power supply construction, continuously laid along the extending direction of the track bed , the railway transportation power supply construction comprising an insulating base , a power supply rail , a return current rail and an insulating shield , wherein an upper portion of the insulating base is provided with a boss, with the power supply rail and the return current rail being respectively arranged on two side shoulders of the boss, and the insulating shield is arranged on the top of the boss of the insulating base , the insulating shield covering the power supply rail and the return current rail ; wherein the power supply rail and the return current rail are installed higher than a running rail .
An ultrasound imaging system comprising: an ultrasound transducer array configured to acquire an ultrasound image; a controller configured to control acquisition by the ultrasound transducer array based, at least in part, on one or more imaging parameters; a view recognition processor configured to determine if the ultrasound image corresponds to a specific view; and an optimization state controller configured to receive an output of the view recognition processor if the view recognition processor determines that the ultrasound image corresponds to the specific view, and to determine updates to the one or more imaging parameters, based, at least in part, on the output, wherein the optimization state controller provides the updated one or more imaging parameters to the controller; and wherein the optimization state controller is adapted to control the ultrasound imaging system to reacquire an ultrasound image of the same specific view with the updated one or more imaging parameters if the ultrasound image has been stable for a certain period of time. an ultrasound transducer array configured to acquire an ultrasound image; a controller configured to control acquisition by the ultrasound transducer array based, at least in part, on one or more imaging parameters; a view recognition processor configured to determine if the ultrasound image corresponds to a specific view; and an optimization state controller configured to receive an output of the view recognition processor if the view recognition processor determines that the ultrasound image corresponds to the specific view, and to determine updates to the one or more imaging parameters, based, at least in part, on the output, wherein the optimization state controller provides the updated one or more imaging parameters to the controller; and wherein the optimization state controller is adapted to control the ultrasound imaging system to reacquire an ultrasound image of the same specific view with the updated one or more imaging parameters if the ultrasound image has been stable for a certain period of time.
A process for converting hydroxymethylfurfural to furanic products inclusive of 2,5-furandicarboxylic acid, comprising: combining a quantity of hydroxymethylfurfural with water to provide an aqueous solution containing at least five percent by weight of hydroxymethylfurfural; and combining the aqueous solution with an oxygen source in the presence of a heterogeneous ruthenium-based catalyst, wherein the catalyst is an unsupported ruthenium oxide catalyst which has neither been treated with base nor includes a basic support; and oxidizing the hydroxymethylfurfural to furanic oxidation products inclusive of 2,5-furandicarboxylic acid, wherein the oxidation step is conducted in the substantial absence of any solvent for either hydroxymethylfurfural or 2,5-furandicarboxylic acid other than water and at a temperature ranging from 70 °C to 170 °C. combining a quantity of hydroxymethylfurfural with water to provide an aqueous solution containing at least five percent by weight of hydroxymethylfurfural; and combining the aqueous solution with an oxygen source in the presence of a heterogeneous ruthenium-based catalyst, wherein the catalyst is an unsupported ruthenium oxide catalyst which has neither been treated with base nor includes a basic support; and oxidizing the hydroxymethylfurfural to furanic oxidation products inclusive of 2,5-furandicarboxylic acid, wherein the oxidation step is conducted in the substantial absence of any solvent for either hydroxymethylfurfural or 2,5-furandicarboxylic acid other than water and at a temperature ranging from 70 °C to 170 °C.
An encapsulation for electronics, comprising: a circuit card assembly, CCA, on which a component of the electronics is operably disposed; a compliant thermal buffer coating, TBC, layered over the component and a first area of the CCA , which extends about a periphery of the component ; thermoset material cast over the compliant TBC and a second area of the CCA , which extends about a periphery of the compliant TBC ; and high-performance thermoplastic material having characteristically high melting temperatures of at least 260°C (500 °F) and characteristically high injection molding pressures of at least 517.1 Bar (7,500 psi), injection molded over the thermoset material and a third area of the CCA , which extends about a periphery of the thermoset material . a circuit card assembly, CCA, on which a component of the electronics is operably disposed; a compliant thermal buffer coating, TBC, layered over the component and a first area of the CCA , which extends about a periphery of the component ; thermoset material cast over the compliant TBC and a second area of the CCA , which extends about a periphery of the compliant TBC ; and high-performance thermoplastic material having characteristically high melting temperatures of at least 260°C (500 °F) and characteristically high injection molding pressures of at least 517.1 Bar (7,500 psi), injection molded over the thermoset material and a third area of the CCA , which extends about a periphery of the thermoset material .
A percutaneous absorption composition comprising a basic medicament or a salt thereof, wherein the basic medicament is at least one selected from the group consisting of tizanidine and oxycodone, and a sorbate component selected from sorbic acid and/or its metal salt, wherein the concentration of the sorbate component is 0.5 moles to 2.5 moles per mole of the basic medicament.
A User Equipment, UE, , configured to receive data from a base station in subframes, wherein a predetermined number of symbol intervals is utilized in a normal subframe, the UE further configured to: determine that less symbol intervals will be utilized in a received subframe than in the normal subframe based on a bit sequence in the received subframe; and in response to said determining, disregard symbols in one or more symbol intervals at the end of the received subframe when processing the received subframe. determine that less symbol intervals will be utilized in a received subframe than in the normal subframe based on a bit sequence in the received subframe; and in response to said determining, disregard symbols in one or more symbol intervals at the end of the received subframe when processing the received subframe.
Bridging device of lamellar construction for a construction joint between a first construction part and a second construction part, having a plurality of lamellae and at least one hydraulic control device for controlling the gap width (S) between the lamellae , the hydraulic control device having double-acting hydraulic cylinders each having one movable piston and one piston rod arranged on the piston , wherein each hydraulic cylinder is arranged on one lamella , and each piston rod is connected to another lamella , and wherein the piston defines a first working volume and a second working volume of the corresponding hydraulic cylinder , characterized in that the hydraulic control device has at least three double-acting hydraulic cylinders which are connected to one another via a hydraulic connection , in that the first working volume of each hydraulic cylinder is hydraulically connected to the second working volume of another hydraulic cylinder , so that a hydraulic loop is formed between the at least three hydraulic cylinders .